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Broadband
Strategies
Handbook
Tim Kelly and Carlo Maria Rossotto
Editors
Broadband
Strategies
Handbook
Broadband
Strategies
Handbook
Editors
Tim Kelly and Carlo Maria Rossotto
Coordinated by Telecommunications Management
Group, Inc.
© 2012 International Bank for Reconstruction and Development / International
Development Association or The World Bank
1818 H Street NW
Washington DC 20433
Telephone: 202-473-1000
Internet: www.worldbank.org
1 2 3 4 15 14 13 12
This volume is a product of the staf of The World Bank with external contributions. The
findings, interpretations, and conclusions expressed in this volume do not necessarily
reflect the views of The World Bank, its Board of Executive Directors, or the governments
they represent.
The World Bank does not guarantee the accuracy of the data included in this work.
The boundaries, colors, denominations, and other information shown on any map in this
work do not imply any judgment on the part of The World Bank concerning the legal
status of any territory or the endorsement or acceptance of such boundaries.
Rights and Permissions
The material in this work is subject to copyright. Because The World Bank encourages
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addressed to the Oice of the Publisher, The World Bank, 1818 H Street NW, Washington,
DC 20433, USA; fax: 202-522-2422; e-mail: pubrights@worldbank.org.
ISBN (paper): 978-0-8213-8945-4
ISBN (electronic): 978-0-8213-8946-1
DOI: 10.1596/978-0-8213-8945-4
Library of Congress Cataloging-in-Publication Data
Broadband strategies handbook / edited by Tim Kelly and Carlo Rossotto.
p. cm.
Includes bibliographical references and index.
ISBN 978-0-8213-8945-4 — ISBN 978-0-8213-8946-1 (electronic)
1. Telecommunication policy. 2. Broadband communication systems—Government
policy. 3. Information technology—Government policy. I. Kelly, Tim (Tim John
Charles) II. Rossotto, Carlo Maria, 1970HE7645.B76 2012
384—dc23
2011052001
Cover design: Naylor Design, Inc.
CONTENTS
Foreword
xiii
Acknowledgments
xv
About the Authors
xvii
Abbreviations
xviii
Executive Summary
xxv
Chapter 1. Building Broadband
1
What Is Broadband?
Why Is Broadband Important?
What Market Trends Are Fostering Broadband Deployment?
How Can Broadband Development
Be Supported?
Notes
References
3
4
19
24
30
31
Chapter 2. Policy Approaches to Promoting Broadband
Development
37
The Public Sector’s Evolving Role in Broadband
How to Do It: Implementing Policies and
Strategies to Enhance Broadband Development
Financing Broadband Development
Measurement, Monitoring, and Evaluation: Checking Progress
Notes
References
38
Chapter 3. Law and Regulation for a Broadband World
91
Licensing and Authorization Frameworks
Spectrum Management to Foster Broadband
IP-Based Interconnection
44
63
76
84
87
92
96
104
v
vi
Access to Infrastructure
Opening Vertically Integrated Markets
Network Neutrality
Security in Cyberspace
Privacy and Data Protection
Regulation of Broadband Content
Notes
References
111
121
124
129
134
138
143
147
Chapter 4. Extending Universal Broadband Access
and Use
155
Universal Access Strategy and Broadband Development
Mechanisms to Drive Universal Broadband Access
Instruments of Fiscal Support for Universal Broadband Access
Notes
References
156
163
171
189
191
Chapter 5. Technologies to Support Deployment of
Broadband Infrastructure
195
Overview of Broadband Networks
Basic Technologies for Broadband Connectivity
International Connectivity
Domestic Backbone
Metropolitan Connectivity
Local Connectivity
Notes
References
195
201
205
210
218
221
241
244
Chapter 6. Driving Demand for Broadband Networks
and Services
247
Awareness
Affordability
Attractiveness
Notes
References
249
259
269
286
289
Chapter 7. Global Footprints: Stories from and
for the Developing World
295
Broadband and Global Goals for Developing Countries
Broadband Bottlenecks and Opportunities in Developing Regions
Regional Developments
Countries in Special Circumstances
296
299
303
315
Broadband Strategies Handbook
Broadband Experiences in Selected Countries
Notes
References
318
330
331
Appendix A. Weblinks to National Broadband Plans
335
Appendix B. Policies and Programs for Promoting
Broadband in Developing Countries
337
Index
349
Boxes
1.1
1.2
1.3
1.4
1.5
2.1
2.2
2.3
2.4
2.5
3.1
3.2
3.3
3.4
4.1
4.2
4.3
4.4
Contents
Examples of Broadband’s Effects on Economic Growth
around the World
Examples of Broadband’s Potential Impacts on
Innovation in R&D and Business Operations
Mobile Health Services in Nigeria
User Trends That Promote Demand for Broadband
Capacity to Absorb Technology and the Economic
Impact of Broadband-Enabled ICTs: The Examples of
Italy and Sweden
Public Sector’s Role in Fostering Broadband Development:
Key Lessons
Broadband Strategies in Middle-Income Countries
General Elements for Governments to Consider
When Creating Policies and Strategies
Experience in the European Union with State Aid for
Financing Broadband
Municipal Broadband Initiatives in Italy and the Netherlands
Summary of the Digital Television Transition and
Digital Dividend Activities around the World
Challenges and Successes of Implementing an
Internet Exchange Point in Kenya
Competition Analysis in the International Internet
Connectivity Market in Nigeria
Computer Emergency Response Teams
Rural Broadband Connectivity in the Dominican Republic
Chile’s Digital Connectivity Plan
Broadband Development in Remote and
Underserved Locations: Lessons from Peru
Universal Service Subsidies in Mongolia
7
12
17
23
29
43
47
48
70
74
105
107
113
131
161
162
166
173
vii
4.5
4.6
4.7
5.1
5.2
5.3
6.1
6.2
6.3
6.4
6.5
6.6
6.7
7.1
7.2
7.3
7.4
7.5
Regional Communications Infrastructure Program in East
and Southern Africa
Reform of the USF in the United States
Reform of the RCDF in Uganda
Connecting the Maldives to the International
Submarine Cable Network
CDMA 450 MHz for High-Speed Rural Internet Access
Three 3G Technologies in China
Sri Lanka’s Approach to Computer Literacy
Measuring Digital Literacy in Australia
Stimulation of Local Applications Development for
SMEs in the Netherlands
Device Price Trends
Promoting Digital Literacy through Primary and
Secondary Schools
Trends in Low-Cost Devices
Colombia’s 2010 Plan Vive Digital
The Eight Millennium Development Goals
The 10 WSIS Targets
The Third Man: Encouraging Disruption in Broadband
Markets
Impact of Improved Access to International Connectivity:
The Case of Moldova
eLAC2015 Universal Broadband Access Goals
182
186
186
211
232
235
253
256
259
262
264
266
276
297
298
303
307
309
Figures
1.1
1.2
1.3
1.4
1.5
1.6
2.1
2.2
viii
Effect of Various Information and Communication
Technologies on GDP Growth in High- and Low-Income
Economies, 2000–06
Estimated Minimum and Maximum Impact on GDP of a
10 Percent Increase in Broadband Penetration
Global Fixed and Mobile Broadband Subscriptions
per 100 Inhabitants, 2000–10
Average Broadband Speed in Top 10 Countries
Broadband Ecosystem and Its Impact on the Economy
Examples of the Elements of Absorptive Capacity
Reasons Given for Not Adopting the Internet in Brazil and
Broadband in the United States
Framework for Government Intervention to Facilitate
Broadband Development
6
7
20
22
25
28
41
51
Broadband Strategies Handbook
2.3
Addressing Bottlenecks in Broadband Networks:
Policies on the Supply Side
2.4
Categories of Broadband Indicators
2.5
Wireline Broadband (ADSL) Penetration in the European
Union and Turkey, by Technology, 2010
2.6
Wireline Broadband (ADSL) Penetration in Turkey,
by Speed, 2010
2.7
Average Download Speed and Ping Time in Bahrain,
January–March 2011
3.1
General Elements of a Unified and General Authorization
Framework
3.2
Example of Multiservice Licensing Framework in Singapore
5.1
Broadband Supply Chain
5.2
Design of IP Next-Generation Networks
5.3
Transition of KPN Netherlands to an All-IP Network
5.4
Internet Protocol Packet Route from Washington, D.C., to
Gaborone, Botswana
5.5
Backbone Networks in Botswana
5.6
Internet Exchange Point Models
5.7
Metro Fiber Ring
5.8
Number of Broadband Subscribers Worldwide, 2007–09,
by Type of Wireline Technology
5.9
Speed of DSL and Distance from Exchange
5.10 Cable Modem Connection Speeds, by Specification
5.11 Diagram of Various FTTx Systems
5.12 Frequency Bands Used by CDMA2000
5.13 Difference between Advertised and Actual Speeds in the
United Kingdom, 2009 and 2010
6.1
The Three Pillars of Facilitating Broadband Demand
6.2
Elements of Digital Literacy
6.3
How People Obtain ICT Training in Europe, 2007
B6.1.1 Computer Literacy in Sri Lanka, 2009
B6.2.1 Digital Literacy in Australia, by Proficiency Level, 2008
B6.4.1 Prices of Computer Hardware in the United States,
1992–2009
6.4
Cost of User Devices Relative to per Capita GDP in
Selected Sub-Saharan African Countries, 2008
6.5
Internet Use by Persons Ages 15–74 in 12 Latin American
Countries, by Place of Access, 2007–09
6.6
Number of Internet Users Worldwide, by Language, 2010
Contents
55
77
79
80
81
95
96
196
199
200
209
212
215
220
222
224
225
227
231
239
249
250
251
253
256
262
263
268
285
ix
7.1
7.2
7.3
7.4
7.5
7.6
Global Broadband Subscriptions per 100 People, Wireline
and Wireless (Active), by Region and Income Level, 2010
Global Distribution of Wireline Broadband Subscriptions,
2005 and 2010
Broadband Connections Relative to Underlying
Infrastructure in 2008 or 2009, by Region
Broadband and Human Development, 2010
Growth in Wireline Broadband Subscriptions
in the Countries with the Fastest-Growing
Broadband Markets, 2010
Broadband Country Summaries
296
299
301
302
302
319
Tables
1.1
Estimated Broadband Employment Creation Multipliers
in Various Countries
1.2
Upstream and Downstream Speeds Needed for
Various Services and Applications
1.3
Wireless and Wireline Broadband Subscriptions
per 100 Inhabitants, by Region, June 2011
B1.5.1 Internet Adoption Proxies in Sweden and Italy, 2007
2.1
Publicly Stated Policy Goals for Broadband Service
Delivery and Adoption in Selected Countries
2.2
Elements of Broadband Strategies in Selected Countries
2.3
Checklist of Policies to Promote the Supply of
Broadband Networks
2.4
Checklist of Policies to Promote Demand for Broadband
2.5
Effectiveness of Fiscal Support for Broadband Development
2.6
Monthly Prices for Wireline and Mobile Broadband
in Selected Countries, 2011
2.7
Sources of Official Broadband Statistics
3.1
Status of Net Neutrality Initiatives in Select Countries
4.1
Information and Communication Services in Low- and
Middle-Income Countries, 1980–2010
4.2
The Multipronged Universal Access and Service Strategy
in the Philippines
4.3
Competition among Firms for Subsidies: Factors Critical
to Success
4.4
Investment in the Broadband Rural and Northern
Development Pilot in Canada, by Source of Funds, 2002–06
5.1
Optimum Choice of Backbone Technology, by Distance
and Capacity
x
9
18
21
29
46
53
60
62
75
83
84
128
157
164
175
179
214
Broadband Strategies Handbook
5.2
5.3
5.4
5.5
5.6
5.7
6.1
6.2
7.1
7.2
B.1
B.2
B.3
B.4
Contents
DSL Connection Speeds, by Type of Line
FTTP Access Protocols
EV-DO Peak and Average Speeds
IMT-2000 Radio Interfaces
W-CDMA and HSPA Theoretical Data Rates
Wi-Fi Speeds
Examples of Funding for School Connectivity
in Three Countries
Subscriptions to Bundled Services in Switzerland,
2008 and 2009
Broadband Plans and Policies in Selected South
Asian Nations
Examples of Policies and Programs for Broadband
Development, by Country, Region, and Economic Level
Infrastructure Policies and Programs
Services Policies and Programs
Applications and Content Policies and Procedures
Policies and Procedures for Users
223
228
232
233
234
237
255
273
313
320
338
342
344
346
xi
FOREWORD
The world is shifting from narrowband to broadband. Services that were
only available in the form of static, text-based websites 10 years ago are now
ofered in full-motion, high-definition video. Usage-based transmission
prices that were once prohibitive are now bundled into an afordable
monthly “all you can eat” charge. A decade after the dot.com bubble burst
because network realities had not yet caught up with user aspirations, a
whole new generation of Internet entrepreneurs is ready to take its ideas to
the stock market.
Nevertheless, a gap remains between the developed and the developing
world when it comes to broadband. For instance, not a single one of the top
10 economies by average broadband speed is in the Southern Hemisphere.
The digital divide that was once measured in terms of diferences in access
to communications is now measured in terms of diferences in quality of
access. Slow speeds for download translate into lost economic opportunities. Yet the evidence seems to suggest that, where broadband is available in
developing countries, it is a major contributor to economic growth. For
instance, a 10 percent increase in the penetration rate of broadband in developing countries is associated with a 1.4 percent increase in gross domestic
product (GDP) per capita, higher than the equivalent relationship for developed countries. The developing world has adopted mobile phones much
more readily than tethered ones, so as mobile broadband becomes more
readily available, a further boost to growth can be expected.
A decade ago, infoDev and the World Bank’s Information and Communication Technology (ICT) Sector Unit joined forces with the International Telecommunication Union (ITU) to develop a handbook for
regulators around the world on basic principles of telecommunication
regulation. The Telecommunication Regulation Handbook subsequently
became a bestseller and was updated and reissued in 2010. It formed the
xiii
basis for the ICT Regulation Toolkit (http://www.ictregulationtoolkit.org),
which now delivers around 1,000 downloads daily.
This new Broadband Strategies Handbook is intended as a next-generation tool for policy makers, regulators, and other relevant stakeholders as
they address issues related to broadband development. It aims to help
readers, particularly those in developing countries, by identifying issues
and challenges in broadband development, analyzing potential solutions
to consider, and providing practical examples from countries that have
addressed broadband-related matters. It goes beyond the regulatory issues
and looks more broadly at the challenges of promoting and universalizing
broadband access. It will also form the basis for a toolkit—http://www
.broadband-toolkit.org—that will complement the other toolkits and technical assistance guides available from the World Bank Group.
This new handbook has been made possible through the generous funding of the Korean Trust Fund for ICT for Development. We hope that it will
meet the requirements of developing-country policy makers and regulators
for sound advice on developing national strategies for broadband. But we
also hope that it will provide incentives for users to share their own experiences, via the toolkit website, of what works well. Consider this handbook,
then, as a living resource that will grow as the broadband market worldwide
grows.
xiv
Valerie D’Costa
Program Manager
Philippe Dongier
Sector Manager
infoDev
ICT Sector Unit
Broadband Strategies Handbook
ACKNOWLEDGMENTS
This report was produced by the Telecommunications Management Group,
Inc. (TMG) and other consultants under the supervision of Tim Kelly
(infoDev) and Carlo Maria Rossotto (ICT Unit) of the World Bank Group.
The report has benefited from the inputs, ideas, and review of many World
Bank Group colleagues and management as well as peer reviewers. The
authors are grateful to Mohsen Khalil, former director of the World Bank’s
Global Information and Communication Technologies (GICT) Department, for his guidance and support throughout the preparation of this
report. The authors also thank Valerie D’Costa, program manager, infoDev,
and Philippe Dongier, sector manager, ICT Sector Unit, for their comments and support. For their review and comments, the authors and
project team thank Francois Auclert, Kevin Donovan, Elena Kvochko,
Wonki Min, Victor Mulas, James Neumann, Duncan Wambogo Omole,
Christine Qiang, Siddhartha Raja, David Satola, Lara Srivastava, Mark
Williams, and Masatake Yamamichi from the World Bank Group, as well as
external reviewers Michael Best from Georgia Institute of Technology
(United States), Yongsoo Kim from the Korea Communications Corporation (Republic of Korea), Mandla Msimang from Pygma Consulting (South
Africa), and Paul de Sa from the Federal Communications Commission
(United States).
As part of our work, we convened an advisory group comprising of
Rodrigo Abdalla F. de Sousa, Ben Akoh, Jef Eisenach, Torbjörn Fredriksson,
Sverre Holt-Francati, Parvez Iftikhar, Lars Krogager, James Losey, Youlia
Lozanova, Sascha Meinrath, Sam Patridge, Rohan Samarajiva, Nancy
Sundberg, Sharil Tarmizi, and Marianne Treschow. We would like to thank
these participants for their valuable input and ideas in shaping the initial
table of contents and for attending our consultation meeting and “writeshop” in August 2009.
xv
Case studies were prepared to support the work of chapter 7. We thank the
authors of these case studies—Diane Anius (St. Kitts and Nevis), Samantha
Constant (Morocco), Helani Galpaya (Sri Lanka), Michael Jensen (Brazil),
Mandla Msimang (Kenya), Çağatay Telli (Turkey), and Tran Minh Tuan
(Vietnam). In addition, we are grateful for the contributions made by Rob
Frieden on financing strategies and technologies to support broadband; by
Victor Mulas on absorptive capacity; and by Helani Galpaya and Rohan
Samarajiva on measurement, monitoring, and evaluation. We also thank the
Organisation for Economic Co-operation and Development (OECD) and the
International Telecommunication Union (ITU) for their comments and
ideas, especially on the measurement section of chapter 2. We gratefully
acknowledge the support of Stephen McGroarty, Nora Ridolfi, and Dina
Towbin from the World Bank Oice of the Publisher.
This handbook, case studies, and other reports have been generously
funded by the Korean Trust Fund (KTF) on Information and Communication Technology for Development (ICT4D). The KTF is a partnership
between the government of Korea and the World Bank. Its purpose is to
advance the ICT4D agenda, with the goal of contributing to growth and
reducing poverty in developing countries. The report has also benefited
from funding from the U.K. Department for International Development.
The handbook is part of a longer-term project to create a broadband toolkit
(see http://www.broadband-toolkit.org), an online resource for regulators
and policy makers. Future updates of the handbook, as well as the full text of
the case studies, practice notes, indicators, and training materials will be
posted there.
The authors retain sole responsibility for any residual errors.
xvi
Broadband Strategies Handbook
ABOUT THE AUTHORS
This report was prepared and input documents were coordinated by the
Telecommunications Management Group, Inc. (TMG). TMG is a telecommunications and information technology consulting firm providing
regulatory, policy, economic, technical, and financial advice. Established in
1992, TMG is composed of a team of regulatory experts, lawyers, economists, market analysts, business development and investment specialists,
engineers, and spectrum management specialists.
TMG advises public and private sector clients on issues related to information and communication technology (ICT) and provides assistance to
regulators and policy makers on regulatory and policy reform matters. TMG
has advised more than 60 countries on regulatory reform issues in Africa,
Asia, Europe, Latin America and the Caribbean, and the Middle East. In
addition, TMG has worked on regulatory matters with international and
regional organizations involved in ICT issues.
The TMG team that worked on this project includes Flavia Alves, Kari
Ballot-Lena, Jef Bernstein, Joel Garcia, Janet Hernandez, Daniel Leza,
Sofie Maddens-Toscano, Jorge Moyano, William Wiegand, David Wye, and
Amy Zirkle, as well as outside consultants Michael Minges, Calvin Monson,
and Björn Wellenius.
xvii
ABBREVIATIONS
2G
3G
3GPP
4G
ACE
ADSL
APEC
API
App
ARCEP
ASO
BAK
BEREC
BPL
BRAND
BRIC
BSC
BSNL
BT
BTS
CATV
CBI
CCI
xviii
second-generation mobile telecommunications system
third-generation mobile telecommunications systems
3G Partnership Project
fourth-generation mobile telecommunications systems
Africa Coast to Europe
asymmetric digital subscriber line
Asia-Pacific Economic Cooperation
application programming interface
application
Autorité de Régulation des Communications
Électronique et des Postes (France) (French Electronic
Telecommunications and Postal Sectors Regulator)
analog switch-of or switch-over of analog broadcast
television
bill and keep
Body of European Regulators of Electronic Communications
broadband over powerline
Broadband for Rural and Northern Development
(Canada)
Brazil, the Russian Federation, India, and China
base station controller
Bharat Sanchar Nigam Ltd.
British Telecom
base transceiver station
cable television
capacity-based interconnection
centro de capacitación en informática (Dominican
Republic) (local community computer training center)
CCK
CDMA
CERT
CII
CLC
CMTS
CPE
CPEA
CPNP
CRT
CSC
DBKL
DMCA
DNS
DOCSIS
DPI
DSL
DSLAM
DTH
DTT
DWDM
EASSy
EC
ECTEL
EDGE
EFM
EMS
EP2P
EPON
ESCAP
ETTx
EU
EV-DO
FBO
FCC
FDD
Abbreviations
Communications Commission of Kenya
Code Division Multiple Access (family of mobile
communication standards)
computer emergency response team
critical information infrastructure
computer learning center
cable modem termination system
customer premises equipment
Cross-Border Privacy Enforcement Arrangement
calling party network pays
cognitive radio technology
common service center (India)
Kuala Lumpur City Hall
Digital Millennium Copyright Act (United States)
domain name system
Data Over Cable Service Interface Specification
(cable modem standard)
Deep Packet Inspection
digital subscriber line
digital subscriber line access multiplexer
direct to home (satellite)
digital terrestrial television
Dense Wave Division Multiplexing
Eastern Africa Submarine Cable System
European Commission
Eastern Caribbean Telecommunications Authority
Enhanced Data Rates for GSM Evolution
ethernet in the first mile
element management system
ethernet over point-to-point
ethernet passive optical network
Economic and Social Commission for Asia and the
Pacific
Ethernet to the home and business
European Union
CDMA2000 Evolution Data Optimized (mobile
communication standard)
facilities-based operator
Federal Communications Commission
(United States)
Frequency Division Duplexing
xix
FDMA
FICORA
FIRST
FITEL
FRIENDS
FTTx
FUST
GB
Gbit/s
GDP
GHz
GICT
GPOBA
GPON
GPRS
GPT
GSA
GSM
GSMA
HD
HFC
HKBN
HSDPA
HSI
HSPA
HSUPA
ICT
ICT4D
IDA
IDC
IEEE
iFrame
xx
Frequency Division Multiple Access
Finnish Communications Regulatory Authority
Forum of Incident Response and Security Teams
Fondo de Inversión de Telecomunicaciones (Peru)
(universal access fund for telecommunications)
Fast Reliable Instant Eicient Network for
Disbursement of Services (India)
Diferent types of access to fiber optic networks,
including fiber to the node (FTTN),
fiber to the cabinet or curb (FTTC),
fiber to the premises (FTTP), which may be
fiber to the home (FTTH), or
fiber to the building or business (FTTB)
Fund for Universal Telecommunications (Brazil)
gigabyte
gigabits per second
gross domestic product
gigahertz
Global Information and Communication Technologies
Global Partnership on Output-Based Aid
gigabit passive optical network
General Packet Radio Service
general-purpose technology
Global Mobile Suppliers Association
global system for mobile communications (mobile
communication standard)
GSM Association
high definition
hybrid fiber coaxial (cable)
Hong Kong Broadband Network
High-Speed Download Packet Access
H.323 Signaling Interface
High-Speed Packet Access
High-Speed Upload Packet Access
information and communication technology
ICT for Development
Info-communications Development Authority of
Singapore
International Data Corporation
Institute of Electrical and Electronics Engineers
inline frame
Broadband Strategies Handbook
IMT-2000
IMT-Advanced
IP
iPoDWDM:IP
IPR
IPTV
IPv4
IPv6
ISP
IT
ITU
IXP
kbit/s
KCC
KDN
kHz
KISA
KIXP
KPN
KTF
LAN
LDC
LLDC
LLU
LTE
MB
Mbit/s
MCMC
MDG
M-health
MHz
MSE PE
MSPP
MPLS
MVNO
Abbreviations
International Mobile Telecommunications-2000
(family of mobile communication standards)
International Mobile TelecommunicationsAdvanced (family of mobile communication
standards)
Internet Protocol
IP (Internet Protocol) over DWDM (Dense Wave
Division Multiplexing)
intellectual property right
Internet Protocol television
Internet Protocol version 4
Internet Protocol version 6
Internet service provider
information technology
International Telecommunication Union
Internet exchange point
kilobits per second
Korea Communications Corporation
Kenya Data Networks
kilohertz
Korean Information Security Agency
Kenya Internet Exchange Point
Koninklijke PTT Nederland (Royal Dutch Telecom)
Korean Trust Fund
local area network
least developed country
landlocked developing country
local loop unbundling
Long-Term Evolution (mobile communication
standard)
megabyte
megabits per second
Malaysian Communications and Multimedia
Commission
Millennium Development Goal
mobile health
megahertz
Mobility Services Engine Provider Edge
Multiservice Provisioning Platform
Multiprotocol Label Switching
mobile virtual network operator
xxi
MyICMS
NBI
NBN
NBP
NBS
NCC
NGA
NGN
NPV
OBA
OECD
OFDM
OLPC
OSP
PC
PDA
PII
PLMN
PON
POP
PPP
PSTN
R&D
RAN
RCDF
RCIP
RFID
RTR
SAR
SAT3/SAFE
SAT3/WASC
SBO
SC-FDMA
SD
SDH
SEACOM
SE-ME-WE
SENA
xxii
Malaysian Information, Communications, and
Multimedia Services
National Broadband Initiative (Malaysia, Indonesia)
national broadband network
National Broadband Plan (United States)
National Broadband Scheme (Ireland)
Nigerian Communications Commission
next-generation access
next-generation network
net present value
output-based aid
Organisation for Economic Co-operation and
Development
Orthogonal Frequency Division Multiplexing
One Laptop per Child
online service provider
personal computer
personal digital assistant
personally identifiable information
public land mobile network
passive optical network
point of presence
public-private partnership
public switched telephone network
research and development
radio access network
Rural Communications Development Fund (Uganda)
Regional Communications Infrastructure Program
radio frequency identification
Rundfunk & Telekom Regulierungs (Austria)
Special Administrative Region
South Atlantic 3/South Africa Far East
South Atlantic 3/Western Africa Submarine Cable
service-based operator
Single Carrier-Frequency Division Multiple Access
standard definition
Synchronous Digital Hierarchy
Southern and East Africa Cable System
South East Asia-Middle East-West Europe
Servicio Nacional de Aprendizaje (Colombia) (National
Training Service)
Broadband Strategies Handbook
SIDA
SIDS
SLCERT
SME
SMS
SOFDMA
SONET
STB
SUBTEL
Tbit/s
TDD
TDF
TD-SCDMA
TEAMS
TESPOK
TLD
TMG
TRA
TRAI
TV
UAF
UAS
UASF
U-CAN
ULL
UMTS
UNCTAD
USF
USO
USOF
VANS
VDSL
VLE
VoB
VoD
VoIP
Abbreviations
Swedish International Development Agency
small island developing state
Sri Lanka computer emergency response team
small and medium enterprise
short message service
Scalable Orthogonal Frequency Division
Multiple Access
Synchronous Optical Network
set-top box
Subsecretaría de Telecomunicaciones (Chile)
(Telecommunications Regulator)
terabits per second
Time Division Duplexing
Telecommunications Development Fund
Time Division–Synchronous Code Division Multiple
Access (mobile communication standard)
The East African Marine System
Telecommunications Service Providers Association
(Kenya)
Top-level domain
Telecommunications Management Group, Inc.
Telecommunications Regulatory Authority
Telecommunications Regulatory Authority of India
television
Universal Access Fund (Jamaica)
universal access and service
universal access and service fund
Ubiquitous Canadian Access Network
unbundled local loop
Universal Mobile Telecommunications System (see
W-CDMA)
United Nations Conference on Trade and Development
universal service fund
universal service obligation
universal service obligation fund
value added network service
very high-speed DSL
virtual learning environment
voice over broadband
video on demand
voice over Internet Protocol
xxiii
VSAT
W-CDMA
WDM
Wi-Fi
WiMAX
WSIS
xDSL
xxiv
very small aperture terminals (satellite)
Wideband Code Division Multiple Access (family of
mobile communication standards)
Wavelength Division Multiplexing
Wireless Fidelity, a wireless local area network
standard based on the IEEE 802.11 standards
Worldwide Interoperability for Microwave Access
(fixed and mobile communications standard)
World Summit on the Information Society
includes diferent types of digital subscriber line,
including ADSL and VDSL
Broadband Strategies Handbook
EXECUTIVE SUMMARY
The Broadband Strategies Handbook is a guide for policy makers, regulators,
and other relevant stakeholders as they address issues related to broadband
development. It aims to help readers, particularly those in developing countries, by identifying issues and challenges in broadband development, analyzing potential solutions to consider, and providing practical examples
from countries that have addressed broadband-related matters.
The handbook consists of seven chapters and two appendixes that look
at how broadband is defined, why it is important, and how its development
can be encouraged. Throughout the handbook, broadband is viewed as an
ecosystem consisting of supply and demand components, both of which are
equally important if the expansion of broadband networks and services is
to be successful. In addressing the challenges and opportunities to which
broadband gives rise, the handbook discusses the policies and strategies
that government oicials and others should consider when developing
broadband plans, including what legal and regulatory issues to address,
what broadband technologies to choose, how to facilitate universal broadband access, and how to generate demand for broadband services and
applications.
Chapter 1, “Building Broadband,” introduces the concepts of broadband by defining the term “broadband” more conventionally (that is,
speed or functionality) as well as explaining how this handbook seeks to
define the term as broadband comes to be seen as an enabling platform.
This chapter examines why broadband, both as an information and communication technology (ICT) and as an enabling platform, is important.
Chapter 1 focuses on how broadband can help to transform a country’s
economic development and improve employment growth, provided that
efective policies are put in place that encourage the use of broadband as
an essential input by all sectors of the economy. Chapter 1 also identifies
the main trends fostering the deployment of broadband networks (supply
xxv
side) and the adoption of broadband services and applications (demand
side). Lastly, this chapter ofers a framework—the broadband ecosystem—
to assist policy makers and stakeholders in viewing broadband policies in
a more holistic manner and as a means to ensure the greatest impact
throughout the economy and society.
Chapter 2, “Policy Approaches to Promoting Broadband Development,”
identifies the issues that governments and the private sector will face when
developing policies and programs to support broadband development. It
discusses policies and strategies for promoting the build-out of broadband
networks as well as ways to encourage the use of broadband services and
applications, particularly in populations that may have limited knowledge
of or interest in broadband. In that context, the impacts of broadband on
other sectors (education, health, banking, environment, and cybersecurity)
are discussed. The chapter also addresses the options for funding broadband development strategies and identifies the issues associated with measuring the efectiveness of policies designed to promote network build-out
and user demand.
Chapter 3, “Law and Regulation in a Broadband World,” discusses the
key policies and regulatory trends that policy makers and regulators are
considering to foster broadband. As the world moves to a converged ICT
environment, countries are reforming their traditional legal and regulatory
frameworks and developing new laws and regulations to address some of
the supply and demand issues associated with broadband development.
This chapter covers a wide range of policy issues, including liberalization of
licensing frameworks, spectrum management policies to maximize wireless
broadband, Internet Protocol (IP) interconnection regulation, policies to
promote competition in the various segments of the broadband supply
chain, vertical integration in a converged environment, network neutrality,
cybersecurity and data protection, and regulation of online content.
Chapter 4, “Extending Universal Broadband Access and Use,” discusses
what roles governments should play in promoting universal broadband
access when market mechanisms do not meet goals for broadband access
and use on their own. The chapter seeks to define a broadband development
strategy capable of addressing market failures, to provide an overview of
what policy makers can do to address perceived shortfalls in the market,
and to work toward achieving universal broadband service. It discusses the
universal service objectives that a government strategy may pursue, the role
of private-led competitive markets in achieving these objectives, the role of
the government in narrowing or eliminating gaps between markets and the
country’s development needs, and how efective government strategies can
be designed to meet such challenges. It finally examines the use of fiscal
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Broadband Strategies Handbook
resources to support private supply of broadband, including the choice of
instruments, use of subsidies, and use of diferent mechanisms to collect and
disburse funds for subsidies.
Chapter 5, “Technologies to Support Deployment of Broadband Infrastructure,” focuses on the supply side of the broadband ecosystem. It
describes the various wireline and wireless technologies now being used to
build out broadband infrastructure, including examples of broadband
deployments throughout the world. The objective of the chapter is to provide policy makers with an overview of how broadband networks work and
their components. It describes the broadband supply chain from a topological perspective, starting from international connectivity and progressing to regional, national, and, finally, local access deployment solutions. It
describes the technologies being deployed in each of these segments,
including fiber optics, satellite, microwave, mobile wireless, and traditional
copper wire. Finally, chapter 5 addresses some of the implementation
issues associated with these technologies, including open access, quality of
service, and spectrum constraints.
Chapter 6, “Driving Demand for Broadband Networks and Services,”
recognizes that, although supply-side issues are important, simply building
networks does not guarantee that they will be used or used most efectively.
This chapter thus focuses on the issue of demand facilitation: what government and the private sector can do to spur the use and adoption of broadband networks and services by consumers. In particular, this chapter
identifies various policies that may be implemented where demand is stifled because consumers are not aware of the benefits of broadband, broadband is not afordable, or broadband is not attractive or relevant to them.
This chapter also highlights the importance of public-private cooperation
to facilitate demand and increase broadband access to a wider number of
users worldwide.
Chapter 7, “Global Footprints: Stories from and for the Developing
World,” addresses the main challenges that developing countries face in
deploying broadband networks, including underdeveloped infrastructure,
low income, significant diferences between rural and urban areas, constrained inter- and intra-modal competition, and weaknesses in regulatory
and legal frameworks. This chapter assesses the broadband bottlenecks and
opportunities found in developing countries and discusses the importance
of improving broadband infrastructure and leveraging existing infrastructure to create greater competition in the broadband market. Chapter 7 further highlights the status of broadband development in diferent developing
regions around the world and summarizes broadband experiences in Brazil,
Kenya, Morocco, Sri Lanka, St. Kitts and Nevis, Turkey, and Vietnam.
Executive Summary
xxvii
CHAPTER 1
Building Broadband
In just the past decade, the world of information and communication technology (ICT) has changed dramatically, evolving from a means by which
information can quickly travel from point to point into an enabling platform
for countless new and expanded personal, social, business, and political
uses. In short, the Internet has become an integral part of people’s lives.
Consumers can use broadband networks to access the Internet at speeds up
to or exceeding 100 megabits per second (Mbit/s) over wired connections in
their homes and oices, and they can use their broadband-enabled mobile
phones and other devices for a wide range of activities, including surfing the
World Wide Web, engaging in two-way real-time video chats, purchasing
goods and services online, streaming video or music, and conducting financial transactions.
But broadband is not just about improving the speed at which users can
read online news, play video games, and engage in social networking,
although these are useful drivers of demand and do provide benefits to
users. It is also an enabling platform that allows developers and individual
users to enhance existing services and to develop previously unimaginable
tools that improve business and society. The benefits of broadband can
expand beyond the ICT sector itself, reverberating throughout the economy
and serving as an essential input for all other sectors, including education,
1
health, transportation, energy, and finance. Its role as a transformative technology is similar to the impact that electricity has had on productivity,
growth, and innovation over the last two centuries, with the potential to
redefine how economies function. Broadband can also be a critical enabler
of civic and political engagement and the exercise of fundamental rights
such as freedom of expression and opinion. However, in order to achieve
broadband’s full potential, its reach must be expanded in both developing
and developed economies. Governments must implement efective policies
that spur construction of broadband networks as well as encourage the
uptake of broadband services in all sectors of the economy.
The rollout of broadband requires significant investment from the private sector as well as support from the public sector. It also requires a longterm perspective because the benefits of broadband will not occur overnight.
For developing countries with limited resources, it may be diicult to focus
on broadband when many of their communities do not have schools for children, safe drinking water, or access to hospitals and health care. However,
broadband ofers countries an enabling platform and new tools to foster
growth, extend public services, enhance businesses, and benefit their people. Making broadband a priority within a country’s development agenda
will be necessary to ensure that the digital divide between developed and
developing countries does not extend further. In crafting a broadband strategy, however, countries should ensure that the use of public funds is supported by sound economic analysis and that the benefits of investing in
broadband are weighed against the benefits of investing in other areas, such
as energy, health, or education. Market-based solutions for the deployment
and uptake of broadband are generally preferable to government investment in order to avoid straining public finances.
This first chapter of the handbook is designed to “set the stage” for the
discussion in subsequent chapters of the various ways in which government
policy makers and the private sector can promote greater deployment of
broadband networks and services, particularly in developing countries. It
first describes what broadband is and how it may be defined. Next, it
explains why broadband is important by identifying how it contributes to
the growth and development of a country’s economy, noting, in particular,
the findings of several studies pointing to broadband’s impact on gross
domestic product (GDP) and employment. Then, it considers the trends
that characterize the development of broadband. Lastly, this chapter
addresses the approaches that governments can use to support the development of broadband, by focusing on both the deployment of broadband networks (supply-side approaches) and the adoption of broadband services
and applications (demand-side approaches). Overall, this chapter seeks to
2
Broadband Strategies Handbook
demonstrate that broadband can enable growth and productivity throughout the economy, provided that appropriate and specific policies are
designed, developed, and efectively implemented.
What Is Broadband?
Despite its worldwide growth and promotion by policy makers, network
operators, and content providers, broadband does not have a single, standardized definition. The term “broadband” may refer to multiple aspects of
the network and services, including (a) the infrastructure or “pipes” used to
deliver services to users, (b) high-speed access to the Internet, and (c) the
services and applications available via broadband networks, such as Internet Protocol television (IPTV) and voice services that may be bundled in a
“triple-play” package with broadband Internet access. Further, many countries have established definitions of broadband based on speed, typically in
Mbit/s or kilobits per second (kbit/s), or on the types of services and applications that can be used over a broadband network (that is, functionality).
Due to each country’s unique needs and history, including economic, geographic, and regulatory factors, definitions of broadband vary widely.
Traditionally, however, broadband has often been defined in terms of
data transmission speed (that is, the amount of data that can be transmitted
across a network connection in a given period of time, typically one second,
also known as the data transfer rate or throughput). Defining broadband in
terms of speed has been an important element in understanding broadband,
particularly since the data transfer rate determines whether users are able
to access basic or more advanced types of content, services, and applications
over the Internet.
However, attempts to define broadband in terms of speed present certain
limitations. First, broadband speed definitions vary among countries and
international organizations, generally ranging from download data transfer
rates of at least 256 kbit/s on the low end, as in India, South Africa, the International Telecommunication Union (ITU), and the Organisation for Economic Co-operation and Development (OECD), to faster than 1.5 Mbit/s on
the high end, as in Canada (see ITU 2009, 22). Second, definitions based on
speed may not keep pace with technological advances or with the speeds,
services, and applications required for the application to function properly.
In other words, what is considered “broadband” today may be regarded as
too slow in the future, as more advanced applications technologies are developed. Thus, any speed-based definition of broadband will need to be updated
over time. Third, such definitions may not reflect the speeds realized by end
Building Broadband
3
users, so the speeds advertised by commercial broadband providers may be
much higher than the speeds set by the government as broadband or vice
versa. For example, while Colombia’s broadband speed definition is 1 Mbit/s,
its average broadband connection speed is already 1.8 Mbit/s.
Due to the limitations of definitions based on speed, some countries
(Brazil) and international organizations (the OECD) have decided or proposed not to categorize broadband in terms of speed, but are instead looking
at broadband in terms of functionality, focusing on what can and cannot be
done with a certain type of connection.1 However, establishing a definition
of broadband based only on functionality may make the term overly subjective. A legal definition of broadband Internet access based on speed is easy
to apply: if broadband is defined as at least 1.5 Mbit/s of download speed,
then a 2 Mbit/s connection is broadband, while a 1 Mbit/s connection is not.
When broadband is defined in terms of functionality, the distinction
between what is and is not broadband becomes less straightforward. Is
being able to watch a YouTube video equivalent to having a broadband connection? What if it takes minutes to bufer and starts and stops throughout?
In considering what broadband is and how it should be defined, this
chapter and the handbook as a whole view broadband more holistically as
a high-capacity ICT platform that improves the variety, utility, and value
of services and applications ofered by a wide range of providers, to the
benefit of users, society, and multiple sectors of the economy. From a policy perspective, broadband should be viewed more broadly as an enabling
ICT platform that can potentially influence the entire economy and thus
may act as a general-purpose technology (GPT) that is used as a key input
across sectors. To capture the full range of potential benefits, policy makers may find it useful to consider broadband as an ecosystem comprising
both supply-side considerations (network platforms) and demand-side
considerations (e-government initiatives, development of services and
applications, promotion of broadband use). To encourage the difusion of
broadband-enabled innovations throughout the economy, policy makers
should also consider the absorptive capacity of various sectors, including
health, education, energy, and transportation. Unless all of these elements—supply, demand, and absorptive capacity—are coordinated, broadband’s impact on the economy as a whole will be constrained.
Why Is Broadband Important?
With the appropriate policies in place, broadband is a transformative platform that afects the ICT sector as well as other sectors of the economy.
4
Broadband Strategies Handbook
While some may disagree on the precise economic and social benefits that
can be specifically attributed to broadband and may challenge the studies
that have found a large impact, few can argue against the fact that broadband has dramatically changed our personal lives, our businesses, and our
economies. Moreover, as an enabling ICT platform and potential GPT,
broadband can facilitate growth and innovation in the ICT sector and
throughout the economy, serving as a vital input for each sector that
strengthens the economy as a whole. The multiplier efect of broadband can
drive GDP, productivity, and employment growth; however, policies that
support the supply and demand elements of the ecosystem as well as the
absorptive capacity to learn and incorporate broadband capabilities into
other sectors must all be in place in order to realize such benefits.
Impact of Broadband on Gross Domestic Product
Due to their potentially wide-ranging impacts and ability to provide easier
access to information that increases eiciencies and productivity in the
economy, it is unsurprising that increased use of broadband networks and
services has been found to produce positive outcomes that reverberate
throughout a country, particularly involving GDP. A frequently cited World
Bank study found that low-income and middle-income countries experienced “about a 1.38 percentage point increase in GDP for each 10 percent
increase in broadband penetration” between 2000 and 2006 (Qiang and
Rossotto 2009, 45; see also Kim, Kelly, and Raja 2010). This study further
found that the development impact of broadband is greater in emerging
economies than in high-income countries, which “enjoyed a 1.21 percentage
point increase in per capita GDP growth” for each 10 percent increase in
broadband penetration. The study also demonstrated that broadband has a
potentially larger growth efect than other ICTs, including wireline telephony, mobile telephony, and the Internet, as shown in figure 1.1. Broadband’s predominance may be unexpected considering that, over the last
decade, mobile telephony has been the fastest-growing ICT worldwide,
with a global penetration rate in 2010 of 76.2 for every 100 persons.2
Other studies support the World Bank findings. Management consulting firm McKinsey and Company estimated that “a 10 percent increase in
broadband household penetration delivers a boost to a country’s GDP that
ranges from 0.1 percent to 1.4 percent” (Buttkereit et al. 2009). Additionally, a study of OECD countries by consulting firm Booz & Company found,
among high-income countries, a strong correlation between average
annual GDP growth and broadband penetration, wherein “countries in the
top tier of broadband penetration have also exhibited 2 percent higher
Building Broadband
5
Figure 1.1 Effect of Various Information and Communication Technologies on
GDP Growth in High- and Low-Income Economies, 2000–06
GDP growth (%)
1.5
1.38
1.12
1.0
0.81
0.73
1.21
0.77
0.60
0.5
0.43
0.0
fixed telephony
mobile telephony
high-income economies
Internet
broadband
low-income economies
Source: Adapted from Qiang and Rossotto 2009, 45.
Note: Measures the percentage point increase in gross domestic product that is associated with a
10 percent increase in different information and communication technologies.
GDP growth than countries in the bottom tier of broadband penetration”
(Friedrich et al. 2009, 4).
Although numerous studies have found a positive impact of broadband
on economic growth, the estimate of its actual magnitude varies. For example, a 10 percent increase in broadband penetration has been found to
increase economic growth from a low of range of 0.24 percent to a high of
1.50 percent (figure 1.2).
While these studies provide important insight into the growth efects of
broadband, data collection and further systematic research and analysis in
this area are needed, particularly for developing countries. Currently, there
is ample anecdotal evidence of the efects of broadband on economic growth,
with some cases highlighted in box 1.1. However, these cases provide only
limited evidence of the impact that broadband has on the economy as a
whole. It is also important to note that investment in broadband or policies
fostering its deployment or adoption are unlikely to produce significant
GDP gains without complementary investments or policies in other sectors,
notably education, innovation, civic participation, and health care. However, even with the implementation of appropriate policies, the impacts of
broadband on growth in certain areas may be limited. For example, in seeking to improve health outcomes developing countries may be in less need of
high-tech, expensive telemedicine and more in need of low-tech, inexpensive solutions, such as mosquito nets and deworming pills (Kenny 2011).
6
Broadband Strategies Handbook
Figure 1.2 Estimated Minimum and Maximum Impact on GDP of a 10
Percent Increase in Broadband Penetration
Katz et al. a 0.24
McKinsey
(average studies) b
0.26
0.70
0.60
Analysys Mason c
1.10
Qiang and Rossotto d
1.21
Czernich et al. e
0.00
1.38
1.50
0.90
0.25
0.50
0.75
1.00
1.25
impact on GDP growth (%)
minimum
1.50
1.75
maximum
Sources: Czernich et al. 2009; Qiang and Rossotto 2009; Analysys Mason 2010; Beardsley et al. 2010;
Katz et al. 2010.
a. Includes only Germany.
b. Average of five country studies: Australia, the Arab Republic of Egypt, Malaysia, New Zealand, and
the United Kingdom; various sources for 2003 and 2004 and Qiang and Rossotto for 2009.
c. Limited to mobile broadband impact in India.
d. Various countries; upper range applies to developing countries, and lower range applies to developed
countries.
e. Sample of 20 OECD countries.
Box 1.1: Examples of Broadband’s Effects on Economic
Growth around the World
The following examples highlight how broadband has improved economic outcomes in
countries at all levels of development, as
well as how different countries are working
to improve broadband penetration rates.
Canada. Over the last several years, broadband access studies in Canada have focused
on the importance of broadband for economic
growth and development, particularly in rural
areas. In 2005, for example, Industry Canada
commissioned a survey to be conducted in
the rural areas of British Columbia regarding subscribers’ views of the significance of
broadband access. More than 80 percent of
all business respondents reported that their
businesses would be negatively affected if
(continued)
Building Broadband
7
Box 1.1 continued
they did not have broadband access, and over
18 percent stated that they would not be able
to operate their businesses without broadband. Additionally, 62 percent of business
owners reported that broadband increased
productivity to some extent, with a majority
stating that broadband increased productivity
by over 10 percent.
China. Between 2010 and 2013, China’s
network operators—China Unicom, China
Telecom, and China Mobile—are expected to
invest an estimated Y 62 billion (US$9 billion)
in the creation of a single wireline broadband access network providing speeds of
1 Mbit/s or more. These investments will be
necessary considering that the number of
wireline broadband subscribers in China is
expected to reach 182 million by 2013, which
represents growth of nearly 77 percent
between 2010 and 2013. Set against these
figures, the impact of broadband on China’s
GDP is anticipated to be substantial. Dial-up
and broadband Internet together is expected
to contribute a combined 2.5 percent to
GDP growth for every 10 percent increase in
penetration.
India. A study released by Analysys Mason
in December 2010 on the deployment of wireless broadband in India found that each percentage point increase in mobile broadband
penetration could increase India’s GDP by
0.11 percent by 2015, which would yield
Rs 162 billion (US$3.8 billion). The study
breaks down the impact on GDP based on
direct contributions (revenues from services
and devices), second-order contributions (revenues or cost savings from increased worker
productivity), and ecosystem contributions
(revenues from value added and other services enabled by wireless broadband).
South Africa. In July 2010, the South
African government issued the Broadband
Policy for South Africa. The policy provides
that, by 2019, 15 percent of the country’s
households will have direct access to broadband of at least 256 kbit/s download speed,
with broadband reaching within 2 kilometers
of the remaining households. A 2010 study
by Analysys Mason reviewed the likely direct
and indirect effects that the broadband
policy might have on South Africa’s economy, finding that wireless broadband is
expected to increase the country’s GDP by
1.8 percent—over R 72 billion (US$9.4
billion)—by 2015. In addition, wireless broadband is expected to create about 28,000
new jobs directly, not including jobs created
outside the communications industry. As a
result, the direct effect of wireless broadband alone (that is, spending on broadband
services and broadband-enabled devices) is
expected to increase the GDP of South Africa
by 0.71 percent by 2015, or R 28.5 billion
(US$3.7 billion). However, the biggest impact
on GDP is expected to come from productivity and efficiency gains.
Sources: Zilber, Schneier, and Djwa 2005; Zhao and Ruan 2010; Analysys Mason 2010; South Africa, Department
of Communications 2010.
Additionally, despite providing a new educational resource, broadband can
also create a new distraction if careful controls are not in place that limit
Internet access to nonacademic sites such as Facebook, YouTube, and filesharing websites (Belo, Ferreiray, and Telangz 2010).
8
Broadband Strategies Handbook
Broadband, Employment, and Job Creation
Broadband enables job creation through three main channels: (1) direct jobs
created to deploy the broadband infrastructure, (2) indirect and induced
jobs created from this activity, and (3) additional jobs created as a result of
broadband network externalities and spillovers (Katz 2009). Each of these
channels focuses on a diferent type of jobs: unskilled, skilled, and highly
skilled. Direct jobs relate primarily to civil works and construction of broadband infrastructure, which involve more low-tech positions. Indirect and
induced jobs require various levels of skilled workers. However, networkefects (that is, spillover) jobs are mainly high-skill jobs requiring specific
technical knowledge and education. Indeed, broadband spillover employment efects are not uniform. Instead, they tend to concentrate in service
industries, such as financial services or health care. Broadband can also produce some efects in middle-skill jobs, such as in manufacturing, usually
related to the use of ICT and requiring ICT skills.
Numerous studies have estimated the impact of broadband on job creation in specific countries by calculating employment multipliers for each of
these job creation categories (table 1.1). While these studies are country specific and cannot be applied directly to other nations, they provide an estimate of the potential employment gains that could result from efective
broadband development, which is between 2.5 and 4.0 additional jobs for
each broadband job. Some studies have estimated the impact of broadband
Table 1.1 Estimated Broadband Employment Creation Multipliers in Various Countries
Study
Scope
Crandall, Jackson, and
Singer 2003
United States
Katz, Zenhäusern, and
Suter 2008
Switzerland
Atkinson, Castro, and
Ezell 2009
Type I
Type II
Network effects
—
2.17
—
1.40
—
—
United States
—
3.60
1.17
Katz and Suter 2009
United States
1.83
3.43
—
Libenau et al. 2009
United Kingdom
—
2.76
—
Katz et al. 2009
Germany
1.45
1.93
—
1.56
2.78
1.17
Average
Sources: Katz 2009, citing Crandall, Jackson, and Singer 2003; Katz, Zenhäusern, and Suter 2008; Atkinson, Castro, and Ezell
2009; Katz and Suter 2009; Libenau et al. 2009; Katz et al. 2009.
Note: Type I = (direct + indirect) / direct; type II = (direct + indirect + induced) / direct; — = not available.
Building Broadband
9
on the employment creation rate. For instance, Katz (2009) estimated that
an increase of about 8 percentage points in broadband penetration in 12
Latin American countries could result in an increase of almost 8 percent on
average in their employment rate.3
As with broadband’s efects on GDP, further data collection and analysis
are needed to confirm the positive impact that broadband has on employment growth. Aside from the studies identified in table 1.1, some researchers have reported anecdotal evidence of how broadband development has
stimulated the job market, including in the European Union (EU), Brazil,
Malaysia, and the United States.
• In the EU, a study estimated that broadband could create more than
2 million jobs throughout Europe by 2015 and result in an increase in
GDP of at least €636 billion (Fornefeld, Delaunay, and Elixmann 2008, 6).
• In Brazil, broadband was found to add up to 1.4 percent to the employment growth rate (Broadband Commission for Digital Development
2010, 15).
• In Malaysia, the Malaysian Communications and Multimedia Commission (MCMC) estimated in 2008 that achieving 50 percent broadband penetration by 2010 could create 135,000 new jobs in the
country.4 The MCMC further projected that the number of jobs created would reach 329,000 by 2022, based on a broadband penetration
rate of 50 percent.
• Overall, an evaluation of multiple studies showed that, for every 1,000
additional broadband users, approximately 80 new jobs are created
(Almqvist 2010).
• In the United States, a nationwide study examined how broadband
deployment afects job creation, determining that availability of broadband at the community level adds more than 1 percent to employment
growth (Katz and Avila 2010, 3).
Additionally, although broadband is likely to have overall positive efects
on job growth, short-term job losses may result from broadband-enabled
improvements in productivity due to process optimization and capital-labor
substitution. However, countries have confirmed that broadband creates
many more jobs than it displaces in the longer term. For example, a study
commissioned by the European Commission found a positive impact on
employment in 2006, with net creation of 105,000 jobs throughout Europe
due to broadband deployment.
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Broadband Strategies Handbook
Broadband as a General-Purpose Technology
Overall, broadband’s importance may be fully realized as it becomes a GPT.
Although the notion of broadband as a GPT has been addressed in recent
discussions of broadband and development as well as in government-funded
stimulus plans, the concept of GPTs was introduced on a more general basis
in the 1990s and includes three key characteristics:
• Pervasive use in a wide range of sectors
• Technological dynamism (inherent potential for technical improvements)
• General productivity gains as GPTs evolve, improve, and spread throughout the economy (Bresnahan and Trajtenberg 1995).
In broad terms, GPTs are technologies that enable new and diferent
opportunities across an entire economy, rather than simply addressing one
problem or one sector. According to the OECD (2007, 8), GPTs “fundamentally change how and where economic activity is organized.” Common
examples include electricity, the internal combustion engine, and railways.
Although the initial conception of GPTs did not include the ICT sector,
later research has considered ICTs with broadband as the enabling platform, through the lens of the GPT concept. This view of broadband as a
potential GPT has also been embraced in publications from, or on behalf of,
the World Bank, infoDev, and the European Commission as well as in academia (Kim, Kelly, and Raja 2010, 4; infoDev 2009, 3; Majumdar, Carare, and
Chang 2009, 641).
When taken holistically, broadband as a platform—coupled with services,
applications, content, and devices—has the potential to satisfy all three criteria and thus to become a GPT. First, broadband can be used as a key input in
nearly all industries. Second, broadband has the potential for technological
dynamism through the development of new technologies as well as improvements in the capacity and speed of broadband systems. For example, the
average global broadband connection speed at the end of 2010 was slightly
below 2 Mbit/s, with the top 20 countries having average speeds of over 7
Mbit/s, which allow services and applications requiring higher bandwidth,
such as streaming video, to develop and become accessible to users (Akami
2010, 10). Third, broadband has the potential to enable and engender new
organizational methods that result in more general increases in productivity.
Global architecture firms, for example, may have oices around the globe,
but team members working on a new building design no longer have to be in
the same place or even in the same time zone. By using broadband connections to share work products, the team can be completely decentralized.
Building Broadband
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As broadband’s potential as a GPT is realized, it will become an enabler
of technology-based innovation and growth throughout the economy by
businesses and individuals as well as by academic, government, and other
institutions. Businesses and individuals are able to use currently available
broadband technologies and services to create entirely new applications
and services in areas such as advertising, e-commerce, online video, social
networking, and financial services, including online banking and loans
(Katz 2010, 9). Innovation in these areas is important for the growth of new
markets in developed economies and for the transfer of technology to
emerging economies, which can benefit from e-services, particularly mobile
health and mobile banking services. Broadband-enabled services also allow
the public sector to access new communities and regions as well as to deliver
higher-quality services more eiciently and at lower costs, including in
online education, telemedicine, and civic participation. The following discussion provides specific examples of how broadband can enable growth in
and beyond the ICT sector in both developed and developing countries.
Research and Development: Enabling Product Development
and Innovations in Any Sector
Broadband can have a particularly strong impact on research and development (R&D), leading to innovative technologies as well as enabling new
ICTs to lead to further innovations (box 1.2). Additionally, broadband may
Box 1.2: Examples of Broadband’s Potential Impacts
on Innovation in R&D and Business Operations
• Enable instant sharing of knowledge and ideas
• Lower the barriers to product and process innovation via faster and less
expensive communications
• Accelerate start-ups
• Improve business collaboration
• Enable small businesses to expand their R&D capabilities and collaborate
in larger R&D consortia
• Reduce time from idea to final product
• Foster greater networking
• Promote user-led innovation.
Source: OECD 2008.
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Broadband Strategies Handbook
allow businesses to move more rapidly in the product development cycle
from idea to final product. For example, a company could have teams in various locations around the world working on related portions of the same
project, using broadband connectivity to provide seamless communication
and information sharing.
Increasing broadband penetration may also enable more than just large
firms, governments, and academic research institutions to develop innovative products. For example, Apple’s iPhone App Store has over 100,000 registered application developers, most of which are small companies.5 In
2008, those small developers produced five of the top 10 applications sold in
the App Store (Dokoupil 2009).
Cloud Computing: Reducing Costs for Businesses
For enterprises of all sizes, the costs of information technology (IT) infrastructure, including hardware, software, and technical support, can be
significantly reduced with the adoption of cloud computing technologies.
Cloud computing generally allows for instant access to and storage of
applications and data via broadband connectivity. Currently, almost every
traditional business application has an equivalent application in the cloud,
which means that cloud services can efectively replace the more conventional, and typically more expensive, method of accessing and storing
applications and data through software installed locally on one’s own computer or in-house server (Carr 2008, 72). Additionally, cloud computing
reduces or eliminates the need for on-site IT staf since these data processes are handled remotely. According to Zhang, Cheng, and Boutaba
(2010), cloud computing has other potential benefits for businesses as well:
• Reduced need for up-front investment, since cloud computing is typically based on a pay-as-you-go pricing model
• Lower operating costs, since the service provider does not need to provision capacities according to the peak load
• Easy access through a variety of broadband-enabled devices
• Lower business risks and maintenance expenses, since business risks
(such as hardware failures) and maintenance costs are shifted to infrastructure providers, which often have better expertise and are better
equipped to manage these risks.
Harvard Business Review Analytic Services (2011) conducted a global
survey of nearly 1,500 businesses and other organizations on their current
and planned use of cloud computing as well as the perceived benefits and
Building Broadband
13
risks associated with cloud computing services.6 About 85 percent of respondents stated that their organization would be using cloud computing tools
on a moderate or extensive basis over the next three years in order to take
advantage of the benefits of cloud computing, including improved speed
and flexibility of doing business, lower costs, and new avenues for growth,
innovation, and collaboration. Only 7 percent of respondents stated that
their business had been using cloud computing for over five years; these
early adopters reported that real business value had already been created,
including faster time to market, lower operating costs, and easier integration of new operations.
In addition, cloud computing itself can give rise to new business models
and create new avenues for generating revenue. For example, Amazon, the
largest U.S. online retailer, began ofering cloud computing services to businesses and individuals in 2002 because the company had excess computing
and storage capacity (Carr 2008, 74–75). In order to accommodate the busiest shopping week of the year in the United States, Amazon had to purchase
a much larger amount of capacity than was required the rest of the year.
Rather than let the extra capacity go unutilized, Amazon began renting its
system to others, thereby becoming a “utility” for computing services.
Despite the promise of cloud computing as a source of substantial cost
savings for enterprises, various issues may limit its impact, particularly lack
of access to broadband services. Cloud computing requires access to fast,
reliable, and afordable broadband in order to achieve the maximum benefits. In addition, cloud computing raises potential network and data security
concerns as well as significant concerns about reliability of the technology,
lack of interoperability with existing IT systems, and lack of control over the
system.
Retail and Services Sectors: Improving Customer Relations
Particularly for the retail and services sectors where customer relations
average 50 percent of a company’s activities, broadband can improve the
ability to reach new customers and maintain contact with existing customers. As such, the ability to send multimedia e-mail or use targeted online
advertising to keep and attract customers can increase a company’s sales,
while using less capital and fewer labor inputs than would be required for
postal mailings or door-to-door sales calls. Broadband also enables selfservice websites, such as online airline reservations or e-government services, as well as remote services, such as online technical support and video
conferencing. For example, broadband is essential for developing countries,
particularly India, Mauritius, and China, which are the main of-shore destinations for IT technical support and business process outsourcing.7
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Broadband Strategies Handbook
In addition, sophisticated services, enabled by broadband and the development of ICTs, have become not just an input for trade in goods, but a final
export for direct consumption (Mishra, Lundstrom, and Anand 2011, 2).
Call centers in Kenya, business-consulting and knowledge-processing
oices in Singapore, accountancy services in Sri Lanka, and human
resources–processing firms in Abu Dhabi are diferent forms of this phenomenon. Recent research has found that sophisticated service exports are
becoming an economic driver of growing importance in developing countries and may be an additional channel for sustained high growth. The
deployment and adoption of broadband also have the potential to provide an
additional conduit for economic growth through service exports.
Manufacturing and Industrial Sectors: Improving Supply Chain
Management
Broadband allows businesses to manage their supply chains more eiciently
by automatically transferring and managing purchase orders, invoices,
financial transactions, and other activities. As with any information-based
business activity, broadband can enable faster, more secure, and more reliable processing than was previously possible. Broadband connectivity saves
processing and transfer time along the supply chain and substantially
increases competitiveness by helping businesses to reduce stock levels,
optimize the flow of goods, and improve the quality of final products. Since
manufacturing and industrial sectors have been the main driver of overall
economic growth in developing countries for the last 15 years, broadband is
expected to play a vital role in helping developing countries to improve productivity in these sectors and companies to compete efectively in a global
market.8
Education: Building Human Capital
In order to realize broadband’s full potential for economic growth, an educated workforce trained in the use of ICTs is necessary. Additionally, there
is a self-reinforcing efect between education and broadband, since broadband can help to improve fundamental educational outcomes, including
learning how to use broadband better. For example, a review of 17 impact
studies and surveys carried out at the national, European, and international
levels by the European Commission found that the services and applications available over broadband networks improve basic educational performance (Balanskat, Blamire, and Kefala 2006, 3). These studies found that
broadband and ICTs positively afect learning outcomes in math, science,
and language skills. In addition to facilitating basic skills, broadband
improves the opportunities for individuals with ICT training, and such
Building Broadband
15
individuals generally have a better chance of finding employment as well as
higher earning potential (UNCTAD 2009, 57). Bridging the connectivity
divide is critical to ensuring that today’s students—and tomorrow’s hightech workforce—can take advantage of these benefits.
One way to expand access to broadband and ICTs in rural and remote
areas is through the deployment of mobile education labs. These labs, which
may simply be vehicles fitted with broadband connectivity, computer equipment, and learning facilities, allow educators to drive to various schools
throughout the week (Samudhram 2010). In addition, mobile education
labs can provide ICT training for adults to improve digital literacy. As
opposed to transporting children in rural areas to where broadband facilities exist or waiting until the network is built out to them, mobile facilities
ofer a cost-efective way to reach rural populations. The United Nations has
noted the success of mobile schools in Mongolia, where 100 mobile “tent”
schools have been introduced in 21 provinces, as well as in Bolivia (United
Nations 2010). Bolivia has implemented a bilingual education program for
three of the most widely used indigenous languages, which has been
expanded to include indigenous children in remote areas. In Morocco, the
government implemented a program called NAFID@ to help over 100,000
teachers to aford wireline or mobile broadband connections, which has
allowed teachers to receive training in the use of ICTs in the classroom as
well as to use e-learning programs and online libraries to improve class lessons (Intel 2010).
Health Care Sector: Improving Health and Medical Outcomes
Health-based broadband applications and services are significantly improving health and medical outcomes around the world, particularly for patients
in remote areas and those with limited mobility, through e-health and
m-health initiatives (WHO 2005). Considering that there are fewer than 27
million doctors and nurses for the more than 6 billion people in the world—
and only 1.2 million doctors and nurses in the lowest-income countries—
harnessing mobile technologies is a valuable tool for enabling health care
practitioners to reach patients. As mobile broadband develops and spreads
in developing countries, the benefits are already becoming clear (box 1.3).
Although basic voice and data connections can be useful in improving
health and medical care, broadband connectivity is necessary to capture the
full potential of e-health services, including telemedicine, which enables
real-time audio and video communications between patients and doctors as
well as between health care providers. Improvements in telemedicine and
other e-health initiatives rely on increasing bandwidth capacity, more storage and processing capabilities, and higher levels of security to protect
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Broadband Strategies Handbook
Box 1.3: Mobile Health Services in Nigeria
In Nigeria, the government lacked sufficient public health information to allocate health care services efficiently to over 800 villages with no primary
health care. A public-private partnership, Project Mailafia, was established to
alleviate this situation. Project Mailafia sends teams of mobile health care
providers to remote villages, where they treat patients and collect health
data that support better public health decision making and resource allocation. Mobile health workers collect the data on ruggedized netbooks and
transfer the data to area clinics. The clinics then upload the data to a central
database using Worldwide Interoperability for Microwave Access (WiMAX)
and Wireless Fidelity (Wi-Fi) technologies.
Source: Intel 2010.
patient information (ITU 2008, 11). As noted in table 1.2, the U.S.-based
California Broadband Task Force (2008, 6) estimated that telemedicine will
require speeds between 10 and 100 Mbit/s and that high-definition telemedicine will require broadband speeds of over 100 Mbit/s. The current
wireline and wireless infrastructure in most countries is insuicient to take
advantage of the e-health opportunities in the digital economy. This is particularly important for developing countries, where ensuring access to and
adoption of wireline and wireless broadband networks would be particularly useful for including those who have been left out of more traditional
health care models.
This happened in Rwanda, where a three-phase e-health project was
delayed due to lack of high-speed broadband connectivity (Rwirahira 2009).
The first phase of the initiative, which established an electronic data storage
system that permitted three hospitals to share patient information, was
completed without delay. However, the final two phases, which involved
video conferencing and a real-time telemedicine system, were put on hold
for a year until a broadband Internet connection could be established to
connect the three hospitals with a fiber optic cable network (Ndahiro 2010).
E-Government Applications: Transforming Government Processes
and Improving Citizen Participation
E-government covers a broad range of applications that can transform government processes and the ways in which governments connect and interact with businesses and citizens. This allows citizens to participate in society
and improves the eiciency, accountability, and efectiveness of government
Building Broadband
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Table 1.2
Upstream and Downstream Speeds Needed for Various Services and Applications
500 kbit/s to 1 Mbit/s
5 to 10 Mbit/s
100 Mbit/s to 1 Gbit/s
• Telecommuting (converged
services)
• Telemedicine, HD
• SMS
• Basic e-mail
• File sharing (large)
• Broadcast video, full HD
• Web browsing (simple sites)
• IPTV, SD (multiple channels)
• Full IPTV channel support
• Streaming music (caching)
• Switched digital video
• Video on demand, HD
• Low-quality video (highly
compressed)
• Video on demand, SD
• Gaming (immersion)
• Broadcast video, SD
• Remote server services for
telecommuting
• VoIP
• Video streaming
(2–3 channels)
• Multiple educational services
• Video downloading, HD
• Low-definition telepresence
• Gaming
• Medical file sharing (basic)
• Remote diagnosis (basic)
• Remote education
• Building control and management
1 to 5 Mbit/s
10 to 100 Mbit/s
1 to 10 Gbit/s
• Web browsing (complex sites)
• Telemedicine
• Research applications
• E-mail (larger attachments)
• Educational services
• Remote surveillance
• Telepresence using uncompressed video streams, HD
• IPTV, SD (1–3 channels)
• Broadcast video, SD and
some HD
• File sharing (small, medium)
• IPTV, HD
• Telecommuting (ordinary)
• Gaming (complex)
• Digital broadcast video (1
channel)
• Telecommuting (high-quality
video)
• Streaming music
• High-quality telepresence
• Surveillance, HD
• Smart, intelligent building
control
• Live event digital cinema
streaming
• Telemedicine remote control
of scientific or medical
instruments
• Interactive remote visualization and virtual reality
• Movement of terabyte data
sets
• Remote supercomputing
Source: California Broadband Task Force 2008.
Note: kbit/s = kilobits per second; Mbit/s = megabits per second; Gbit/s = gigabits per second; VoIP = voice over Internet
Protocol; SMS = short message service; IPTV = Internet Protocol television; SD = standard definition; HD = high definition.
programs and processes. Broadband is important for e-government, as it
provides the foundation for public administration networks that allow processes to flow more smoothly. In turn, e-government can help to drive
demand for broadband.
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Broadband Strategies Handbook
Countries around the world are providing increasing access to online
services, including the provision of basic services, the use of multimedia
technology to promote two-way exchanges, and the use of technology to
facilitate consultation with citizens on public policy issues. Although the
Republic of Korea, the United States, and Canada take the top three places
with regard to the number of online government services available, several
countries have made significant progress over the last two years, including
Bahrain, Chile, Colombia, and Singapore. Moreover, the use of mobile
phones for e-government services, such as alert messages, applications, and
fee payments, is almost as popular in developing countries as it is in developed countries (UNPAN 2010).
What Market Trends Are Fostering Broadband
Deployment?
Broadband connectivity is expanding globally. Between 2005 and 2010, the
average wireline broadband penetration rate grew 59 percent—from 3.3 to 8
subscribers per 100 inhabitants (ITU-D 2010). The number of mobile
broadband subscriptions worldwide is expected to reach the 1 billion mark
in 2011, with total mobile subscriptions topping 5 billion.9 As a result of such
growth, the estimated number of wireline broadband subscriptions reached
approximately 555 million in 2010, up from 471 million in 2009. A sizable
number of these new subscriptions came from Brazil, the Russian Federation, India, and China (known as the BRIC countries), which have collectively doubled their subscriber base in the last four years.10 Likewise, the
number of wireless broadband users has also expanded rapidly. In 2010, the
number of third-generation (3G) mobile broadband subscriptions rose to
940 million, an increase from 703 million in 2009. As figure 1.3 shows, the
number of wireless broadband subscribers exceeded the number of wireline broadband subscribers for the first time in 2008, and there were an estimated 70 percent more mobile broadband subscribers than wireline
broadband subscribers in 2010.
Despite these advances, however, a “digital divide” remains between
developed and developing countries; only 4.4 per 100 people in developing
countries are broadband subscribers compared to 24.6 in developed countries. In efect, wireline broadband deployments in many developing countries are a decade behind deployments in developed countries. Given the
cost and resources required for the deployment of wireline broadband,
wireless broadband is more likely to be the broadband solution adopted by
users in developing countries, particularly in rural and remote areas.
Building Broadband
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Figure 1.3 Global Fixed and Mobile Broadband Subscriptions per
100 Inhabitants, 2000–10
broadband subscriptions per 100
inhabitants
15
13.6
10.3
10
8.0
6.8
5
4.3
5.2
4.6
6.9
6.1
3.3
2.4
0
2.4
1.6
1.1
1.0
0.3 0.6
0.5
0.1
0.0
0.0
0.0
2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010a
mobile broadband subscriptions
fixed broadband subscriptions
Source: ITU, World Telecommunications Indicators database.
a. Estimated.
Trends in Supply
Developments in the types of technologies and business models used to
deploy broadband network infrastructure are allowing operators to supply
more people with broadband connections at lower costs. In developed
countries, network operators are installing fiber optic cables closer to end
users, reaching directly into their neighborhoods, oices, and homes. In
developing countries, the spread of high-speed wireless networks promises
to gain momentum over the next few years. Wireless broadband is already
more prevalent than wireline broadband in many developed and developing
countries, but to a much greater extent in developing countries. As noted in
table 1.3, the number of wireless broadband subscriptions in Sub-Saharan
Africa, for example, is more than eight times the number of wireline subscriptions, suggesting the potential for wireless broadband in areas where
traditional wireline infrastructure may be absent.
With the number of wireless broadband subscriptions worldwide
expected to reach the 1 billion mark in 2011, developing countries, particularly China and India, are often leading the way. Together, China and India
have the top five mobile operators in terms of total number of subscriptions,
which is expected to continue as mobile broadband grows.
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Broadband Strategies Handbook
Table 1.3 Wireless and Wireline Broadband Subscriptions per 100 Inhabitants,
by Region, June 2011
Region
Sub-Saharan Africa
Wireless
Wireline
2.9
0.3
East Asia and Pacific
16.6
10.5
Eastern Europe and Central Asia
14.5
9.2
European Union and Western Europe
45.9
27.6
Latin America and the Caribbean
12.2
7.1
Middle East and North Africa
13.1
2.5
North America
34.0
24.5
1.6
0.8
13.6
8.1
South Asia
Global
Source: World Bank analysis based on data from TeleGeography’s GlobalComms database.
Another important trend afecting broadband networks is their everincreasing speed. In 2010, Akamai, a major Internet content manager, suggested that a global shift was occurring away from narrowband and toward
broadband connectivity. Globally, average Internet connection speeds (for
users who pass through the company’s servers) rose 14 percent year-overyear to 1.9 Mbit/s, and all of the top 10 countries achieved average connection
speeds at or above the “high broadband” threshold of 5 Mbit/s (figure 1.4).
In addition to overall growth in wireline and wireless broadband infrastructure, the release of new broadband-enabled devices may also be viewed
as a supply-side input. The overall trend for broadband devices is improved
capabilities, mobility, and portability. According to the research firm International Data Corporation (IDC), in the third quarter of 2010, global smartphone shipments increased nearly 90 percent from the same quarter of
2009.11 IDC’s analysts predicted in November 2010 that 20 percent of device
shipments in 2010 would be smartphones, compared to 15 percent in 2009.
The research firm also examined the nascent tablet computing market, noting that shipments in the third quarter of 2010 were 45 percent higher than
in the second quarter and forecasting that 2011 shipments would exceed
2010 by more than 160 percent and that 2012 shipments would exceed 2011
by a further 60 percent.12 In a separate forecast, the IDC predicted that combined shipments of smartphones, tablets, and other application-enabled
devices would overtake traditional personal computer (PC) shipments by
mid-2011 (Thibodeau 2010). All of these devices are designed to take advantage of broadband connectivity, whether provided by a mobile network or
Building Broadband
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Figure 1.4
Average Broadband Speed in Top 10 Countries
Korea, Rep.
13.70
9.40
Hong Kong SAR, China
8.30
Japan
Romania
7.00
Netherlands
7.00
Latvia
5.90
Czech Republic
5.70
Switzerland
5.60
Belgium
5.50
Canada
5.50
top 10 average
global average
7.36
1.94
broadband speed (Mbit/s)
Source: Akamai 2010.
by Wi-Fi distribution of the wired broadband connection in a home, workplace, or Wi-Fi “hotspot.”
Trends in Demand
The development of novel or enhanced applications and services enabled by
broadband connectivity has served as a key driver of demand for broadband
access over the past several years (box 1.4). The availability of broadband
networks has facilitated at least a partial migration of existing services from
more traditional models to broadband digital networks, including entertainment, banking, education, health care, and shopping, to name a few. While
many of these same services saw an initial online presence with dial-up and
other narrowband services, the rise of broadband connectivity has facilitated the development of more robust applications and services. From the
perspective of the organizations that are using broadband-enabled services
to reach consumers, clients, members, and citizens, the eiciency of
electronic communications has led to an increasing interest in bringing
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Broadband Strategies Handbook
Box 1.4: User Trends That Promote Demand for
Broadband
As the following broadband-enabled services, applications, and content
become an increasingly integral component of daily personal, business, and
educational interactions, they are expected to spark further demand for
broadband services.
• Video. More and higher-quality video and other rich content will continue
to drive the demand for higher-capacity broadband services.
• Apps and cloud-based computing. Apps are increasingly driving broadband use and development, especially in the wireless broadband context. More robust apps, including productivity applications such as office
suites, are being offered by companies such as Google and Microsoft.
Some of the benefits of online applications include access to information
and documents from multiple locations, decreased processing power
requirements for end-user devices, and less responsibility for users to
update and maintain applications.
• Web 2.0. Web 2.0 applications leverage advances in computing and connectivity to create collaborative, user-centered, and interoperable environments in which users can generate, distribute, and share content in
real time. See chapter 6 for more on Web 2.0.
• Social networking. As social networking applications have become more
sophisticated and diverse, they have also become immensely popular.
Each month, Facebook’s more than 500 million active users share over
30 billion pieces of content (for example, photos, videos, updates, web
links, news stories, and blog posts). YouTube has become the most popular online video-sharing site in the world, and 70 percent of its content
is created outside the United States. Broadband access facilitates the
use of these social networking applications, which in turn are major drivers of broadband demand. See chapter 6 for more on social networking.
Sources: See Google, http://docs.google.com; Microsoft, http://office.microsoft.com/en-us/
web-apps/; Kim, Kelly, and Raja 2010; Facebook, “Statistics, Press Room,” http://www.facebook.com/press/info.php?statistics, as of June 2011; YouTube, “YouTube Statistics,” http://
www.youtube.com/t/press_statistics, as of June 2011.
traditionally oline or nonelectronic services to the Internet or at least augmenting those services with online alternatives.
In addition to the social and personal use of broadband led by the private sector, countries around the world are providing increasing access to
online e-government services. Broadband allows business owners to reap
Building Broadband
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substantial benefits. The use of broadband as an input by businesses, both
traditional “brick and mortar” and online companies, is expected to be one
of the main drivers of broadband adoption and will require network operators to deploy new infrastructure and upgrade existing networks quickly in
order to keep pace with demand.
How Can Broadband Development
Be Supported?
Despite the rapid growth in demand for broadband and the development of
broadband-enabled applications, services, and devices, there are also notable challenges. Whether within a particular economy or across nations or
even regions, the more-aluent and better-educated populations generally
have had earlier and better access to ICTs than the less-aluent and lesseducated populations. With the rise of broadband-enabled services and
applications and the increasing migration of many aspects of modern life
online, a lack of broadband connectivity can increasingly have a negative
impact on social and economic development by excluding those who lack
broadband access or do not understand the relevance of broadband-enabled
services.
Governments can employ a wide range of strategies and policies to support the development of broadband, such as through market liberalization
(for example, opening international gateways to competition) and the allocation and award of new spectrum for wireless broadband (for example,
releasing the “digital dividend” spectrum for commercial wireless use once
the country’s digital television transition is completed). It may be useful for
policy makers and stakeholders to view broadband as an ecosystem, as this
would encourage the development of coherent, integrated policies that
maximize the benefits of broadband across all sectors of the economy and
segments of society.
Viewing Broadband as an Ecosystem
So that government policy makers and private sector investors can understand the ways in which broadband networks and services can best be
supported, it is useful to have an overarching concept of how to think about
broadband from a policy point of view. This section proposes that broadband can be best thought of as an ecosystem of mutually dependent—and
reinforcing—components: supply and demand.
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Broadband Strategies Handbook
Under the ecosystem model (figure 1.5), the supply of broadband network platforms is the first necessary condition (that is, broadband infrastructure must be available). However, demand for broadband is just as
important in order to make substantial network investments worthwhile.
Also needed is the ability of non-ICT sectors to use and create broadbandenabled services and applications, as this boosts demand and encourages
further network deployments. Developing these synergies will largely
determine the extent to which broadband afects the economy, serves as an
enabling platform, and, ultimately, becomes a GPT that can act as an essential input in driving innovation and growth in all sectors.
The basic elements of supply in the broadband ecosystem consist of four
levels: (a) international connectivity, (b) domestic backbones, (c) metropolitan connectivity, and (d) local connectivity (adapted from Kim, Kelly, and
Raja 2010). These elements and their importance as the supply-side component of the broadband ecosystem are detailed in subsequent chapters. Chapter 5 discusses each of these components in more detail, while chapters 2
and 3 discuss the policy implications and the legal and regulatory trends,
respectively, related to broadband networks.
Without relevant, useful, and innovative advancements in services, applications, and content, there would be little or no demand for broadband. As
Figure 1.5
Broadband Ecosystem and Its Impact on the Economy
nd ecosystem
broadba
supply
(penetration)
pushes
supply
pulls
demand
demand
(adoption)
versus absorbtive capacity
(productive use)
impact on economy
Source: World Bank.
Building Broadband
25
such, the many demand-side components—including services, applications,
and content—are essential to promoting a vibrant broadband ecosystem.
While a distinction is generally made between services and applications, as
technology evolves, services and applications are likely to overlap. For
example, mobile banking may be treated as a service or as an application
(and maybe even as both), depending on how and what features are ofered.
In addition, e-government covers an entire range of services and applications that transform government processes and modes of interacting with
businesses and citizens (Hanna et al. 2009). The distinction, at least with
regard to the ecosystem, may be irrelevant: what is important is that these
services and applications drive demand.
Absorptive Capacity of Broadband
Supply and demand are necessary conditions for the promotion of broadband networks and services, but by themselves they are not suicient to
guarantee that broadband can reach its full potential in the economy. For that
to happen, broadband users (citizens, businesses, and government) must also
have the capacity to understand, learn, and apply the lessons learned about
broadband’s benefits and capabilities across the economy and society.
Absorptive capacity generally refers to the ability of an organization to
recognize the value of new, external information; to assimilate that information; and then to apply it to the organization’s benefit. This ability is critical
to an organization’s innovative capabilities, as new technologies are assimilated by organizations to create, improve, and transform business processes,
products, and services (Cohen and Levinthal 1990). As users have the ability
to become co-creators of content13 and as broadband user–led innovation is
enabled, this same concept can be extended to include other users of the
broadband platform, including citizens (von Hippel 2005). Thus to fully
realize the benefits of broadband, the various sectors of the economy and
society must have the capacity to acquire, assimilate, transform, and exploit
the capabilities enabled by this platform. Under the ecosystem model,
absorptive capacity is the mechanism by which the benefits obtained from
broadband feed into the greater economy, allowing this technology to
unleash its potential as a GPT.
Policy makers can facilitate the capacity to understand and incorporate
the many benefits of broadband by developing and implementing policies
that are complementary to broadband build-out. In addition, they can
encourage the private sector to adopt broadband as an input to drive productivity, growth, innovation, and welfare throughout the economy and
society.
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Broadband Strategies Handbook
As discussed, broadband alone has limited impact as a technological platform, but instead acts as an enabler. As such, it holds the potential to have a
significant impact on economic and social progress and to transform the
economy.
However, for this potential impact to be unleashed, broadband must be
used by businesses, governments, and citizens in a way that increases productivity in the economy.14 This requires (a) the creation and availability of
broadband-enabled services and applications that increase eiciency and
productivity and (b) the capacity of businesses, government, and citizens to
use broadband-enabled services and applications in a productive and eicient way. These two requirements are critical for achieving the potential
economic impact that broadband can produce.
The economy’s capacity to absorb broadband depends on how these two
requirements are fulfilled in the economy. In a nutshell, a country’s absorptive capacity can be thought of as determined by the following:
• The capacity of businesses to create broadband-enabled services and applications and to use these applications and services to make their business processes more productive and eicient
• The capacity of citizens to create and use broadband-enabled services
and applications to improve their welfare
• The capacity of government and other institutions (for example, schools)
to introduce and accommodate broadband-enabled services to deliver
public services more eiciently and transparently to the public.
Components of Broadband Absorptive Capacity
Four components determine the degree to which a country’s economy is
able to absorb broadband and translate it into economic and social development. These components are (a) the economy’s macroeconomic environment, (b) the business environment, (c) the quality of human capital, and
(d) the governance structure (figure 1.6). The macroeconomic environment determines the “broadband friendliness” of the economy and
whether the economy and its main actors (that is, businesses, government,
and citizens) are open to using ICTs. The business environment, which
includes access to financing and difusion of previous technologies, determines the ability of businesses and entrepreneurs to create new broadband-enabled innovations, modify business processes based on these
innovations, and update existing products, services, and strategies using
broadband and the broadband-enabled environment. The quality of human
capital depends on the ability of the labor force, businesses, and academic
Building Broadband
27
Figure 1.6
Examples of the Elements of Absorptive Capacity
Macroeconomic
environment
Business
environment
Quality of human
capital
Governance
• General government balance
• Consumer price index inflation rate
• Real exchange rate volatility
• Ease of starting new businesses
• Ease of access to financing and capital
• Access to complementary technologies
(for example, electricity)
• Secondary and tertiary education attainment
• ICT-related education, e-literacy
• Rule of law and regulatory quality
• Political stability and accountability
• No corruption
Source: Partially based on World Bank 2008.
institutions to understand the potential of broadband and adapt their
mind-sets to the broadband-enabled environment. Finally, the governance
structure determines the degree to which businesses and citizens are permitted to share and access information openly as well as to share broadband-based ideas and innovations. Additionally, governance addresses the
security of investment and the cost of creating new broadband-enabled
business, services, and products. Governance that promotes the absorptive
capacity of broadband generally requires free, open access to information
and abidance by the rule of law to protect investments. Although each
component of absorptive capacity has a wide range of elements, figure 1.6
provides several examples.
Degree of Broadband Absorptive Capacity
The degree of absorptive capacity in a given economy will determine the
amount of broadband-enabled economic development that is possible.
Without strong absorptive capacity, the impact of broadband on economic
development will be limited or even nonexistent (box 1.5). A country with
nationwide broadband coverage and widespread adoption will obtain very
little overall economic and social benefit if absorptive capacity is limited.
Conversely, a country with relatively limited broadband coverage or adoption can obtain a targeted impact on the economy if there is suicient
absorptive capacity. Moreover, absorptive capacity can be targeted to
specific sectors of the economy, which has been the case with the IT and
business process outsourcing industry in countries like India. This targeted
absorptive capacity can then expand throughout the economy.
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Broadband Strategies Handbook
Box 1.5: Capacity to Absorb Technology and the Economic Impact
of Broadband-Enabled ICTs: The Examples of Italy and Sweden
An economy with a flexible facilitating structure, an entrepreneurial business environment, few technological regulatory restrictions, an ICT-educated workforce, high
penetration of complementary technologies
(for example, electricity), a business-friendly
financing structure, and a responsive public
policy structure will experience faster diffusion of broadband-enabled applications and
services and a larger economic and social
impact. The impact of broadband-enabled
ICTs on economic growth will be slower and
smaller in an economy that lacks some of
these elements or that delays the changes
needed to adapt the facilitating structure to
broadband-enabled ICTs (for example, by not
modifying the regulatory framework to eliminate technological restrictions or to facilitate
their diffusion). In relative terms, it can be
put as follows: assuming that the maximum
and fastest effect on the structure of the
economy that a country can obtain from
broadband-enabled ICTs is 100 (that is, the
potential positive impact from broadband),
the degree of absorptive capacity of the
economy will determine how much and how
fast that 100 value can be actually realized.
Italy and Sweden provide good examples
of how this mechanism works. Both countries
have relatively similar levels of GDP per capita
and an in-depth penetration of previous complementary technologies, such as electricity
and telephone lines. However, their absorptive capacity is different (table B1.5.1). Sweden performs better in business environment
and human capital and has taken a very active
role in modifying the facilitating structure of
its economy to allow for faster diffusion of
broadband (for example, by establishing a
public policy to enable the diffusion of broadband and implementing e-literacy programs).
Many other factors in place explain the
ability of Sweden’s economy to diffuse
broadband-enabled ICTs, but the important
point is that Sweden has actively adapted the
facilitating structure of its economy to allow
broadband to diffuse faster and broader than
Italy has. As a result, the economic effects of
broadband-enabled ICTs in Sweden have
been larger and surfaced faster. For instance,
from 1998 to 2007, average annual productivity grew much faster in Sweden than in other
peer countries (2.32 percent compared with
0.39 percent in Italy and an average of 1.66
percent among OECD countries). Even
though this growth was not due exclusively
to broadband, Sweden’s policy has transformed the country into a broadband leader,
and this transformation has played an important role in its economic growth.
Table B1.5.1 Internet Adoption Proxies in Sweden and Italy, 2007
Proxy
Sweden
Italy
% of population with no Internet skills
22
58
% of enterprises receiving Internet orders
26
4
% of enterprises purchasing on the Internet
72
29
Source: LECG 2009, table citing Commission of the European Communities 2008.
Building Broadband
29
The Role of Governments in Broadband Policy Making
Throughout the rest of this handbook, the concept of broadband as an ecosystem, consisting of supply and demand components, is the overarching
concept used to frame how policy makers can maximize absorptive capacity
and fully realize the potential impact of broadband on economic, social, and
policy goals. To this end, as discussed in chapter 2, governments should
implement policies that support the supply of broadband networks and services, particularly to economically unviable areas, through a variety of
mechanisms such as appropriate market regulation, universal access and
service policies, flexible licensing policies, direct infrastructure investments, removal of bottlenecks, and pro-market tax policies. Additionally,
governments should seek to stimulate demand and uptake of broadband
through the creation of an enabling environment by addressing awareness,
afordability, and attractiveness (perceived value) of broadband services
(see chapter 6 for more on facilitating demand). In developing these policies, high-level coordination is needed between the ICT ministry and other
sector ministries, as is a focus on R&D investments. In addition, the rollout
of broadband presents particular concerns for developing countries, as
addressed specifically in chapter 7.
It is also essential to ensure that the government possesses the capacity
to create and implement efective laws and regulations that give rise to an
enabling environment. Chapter 3 discusses this in more detail. This capacity
is particularly important in developing countries, where the government
must be able to carry out the policies and rules it develops. These policies
should emphasize the need for appropriate tools that foster supply and
demand and build absorptive capacity.
Notes
1. OECD (2008, 134). Brazil’s plan defines broadband as “the provision of
telecommunications infrastructure that enables information traic in a
continuous and uninterrupted manner, with suicient capacity to provide
access to data, voice, and video applications that are common or socially
relevant to users as determined by the federal government from time to time”
(Brazil, Ministério das Comunicações 2009, 24).
2. ITU, “Key Global Telecom Indicators for the World Telecommunication Service
Sector,” http://www.itu.int/ITU-D/ict/statistics/at_glance/KeyTelecom.html.
3. Countries include Argentina, Brazil, Chile, Colombia, Ecuador, El Salvador,
Mexico, Nicaragua, Panama, Peru, Uruguay, and República Bolivariana de
Venezuela.
4. MCMC, “Broadband Fact Sheet,” Press Release, May 2008, http://www.skmm
.gov.my/index.php?c=public&v=art_view&art_id=326.
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Broadband Strategies Handbook
5. Apple, “Staggering iPhone App Development Statistics to Be Unveiled at
Inaugural App Exhibit at Macworld 2010,” Press Release, February 2, 2010,
http://www.iphoneappquotes.com/press-staggering-iphone-app-develop
ment-statistics-unveiled-at-macworld.aspx.
6. The respondents were large companies, with average annual sales for 2010 of
US$1.3 billion and average employment of 3,280 employees. However, the
respondents were from a wide range of sectors: 17 percent were in the IT
sector, 12 percent were in professional services, and 10 percent each were in
financial, manufacturing, and government or nonprofit sectors.
7. Gartner, “Gartner Identifies Top 30 Countries for Ofshore Services in 2010–
2011,” Press Release, December 20, 2010, http://www.gartner.com/it/page
.jsp?id=1502714.
8. United Nations Industrial Development Organization, “UNIDO Releases Latest
International Yearbook of Industrial Statistics,” Press Release, March 10, 2010,
http://www.unido.org/index.php? id=7881&tx_ttnews[tt_news]=455&cHash
=09cad462f0.
9. ABI Research, “One Billion Mobile Broadband Subscriptions in 2011: A Rosy
Picture Ahead for Mobile Network Operators,” February 2011, http://www
.abiresearch.com/press/3607-One+Billion+Mobile+Broadband+Subscriptions+
in+2011:+a+Rosy+Picture+Ahead+for+Mobile+Network+Operators.
10. World Bank analysis based on TeleGeography GlobalComms data (December
2009).
11. IDC, “Worldwide Smartphone Market Grows 89.5% Year-over-Year in Third
Quarter as New Devices Launch, Says IDC,” Press Release, November 4, 2010,
http://www.idc.com/about/viewpressrelease.jsp?containerId=prUS22560610.
12. IDC, “IDC’s Worldwide Quarterly Media Tablet and eReader Tracker Makes
Its Debut, Projects Nearly 17 Million Media Tablets Shipped Worldwide in
2010,” Press Release, January 18, 2011, http://www.idc.com/about/viewpress
release.jsp?containerId=prUS22660011§ionId=null&elementId=null&page
Type=SYNOPSIS.
13. See the OECD website, http://www.oecd.org/dataoecd/57/14/38393115.pdf.
14. In particular, the World Bank has defined absorptive capacity in the context of
innovation as the quality of the labor force and the business environment
(including access to finance) in which firms operate and are able (or unable) to
start up, expand, and reap the financial rewards of their new-to-market
innovations (see World Bank 2008). Applied to broadband, this concept focuses
on broadband-enabled services and applications and expands to the use and
creation of these services and applications by businesses, citizens, and governments to modify their behavior and processes in an efort to be more productive and eicient.
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CHAPTER 2
Policy Approaches to Promoting
Broadband Development
The development of broadband networks and services over the last decade
or so has been largely focused in developed countries. In that time, private
sector investment, coupled with enabling polices put in place through liberalization and regulatory reform, has driven the building of broadband networks and the adoption of broadband services throughout the developed
world. But as more economic and social activity has moved onto broadband
networks in recent years, developing countries have been implementing
their own broadband plans and initiatives to realize the benefits that broadband can bring to a country and its citizens.
The development of strategies and policies to promote broadband, however, is not an easy task. Policy makers are quickly realizing that it might be
more diicult to promote broadband than other types of services, such as
mobile and wireline telephony. The usefulness of a mobile or wireline telephone is typically obvious to consumers regardless of income or education
level, and, coupled with relatively low prices, such intuitive services have
grown rapidly. But the same cannot necessarily be said of broadband, especially if the opportunity to try it is undermined by high prices. Using broadband services requires access to a computer or smartphone and some way
to pay for using the network through a subscription (and often some form
37
of term contract), a pay-as-you-go approach, or prepaid services. In the
absence of access through the workplace, school, or community centers,
this can make ownership relatively costly for individual users (even with
falling prices for hardware and subscriptions). In addition, understanding
the benefits of broadband, and having the skills to make use of the available
services, requires some level of digital literacy as well as basic literacy (that
is, the ability to read and write).
As they consider how best to promote broadband, policy makers and
analysts have come to view broadband as an ecosystem with supply and
demand considerations. On the supply side, the building of networks to
carry broadband services is the top priority. But simply having a network
available does not guarantee that broadband services will automatically be
used. It will also be necessary for government policy and private sector
investment to focus on driving demand for broadband services, whether by
putting more services online or educating users about the benefits of broadband and the skills needed to use the new services efectively. Those countries with the best success in broadband development have focused on
developing holistic policies to support both sides of the broadband supply
and demand equation.
This chapter identifies the issues that policy makers must address as they
seek to create an enabling environment for broadband and examine what
policies and regulatory approaches may be efective in encouraging broadband development. It is designed to introduce the issues, policies, and strategies that are discussed in more detail in subsequent chapters. Those
chapters analyze the issues extensively and provide many examples of how
diferent countries have approached broadband development. They deal
with the technologies that make broadband possible, how broadband networks and services can be universalized, how demand for broadband can be
stimulated, and what changes to laws and regulations can help broadband to
reach its greatest potential.
The Public Sector’s Evolving Role in Broadband
The public sector has played two roles in promoting the growth of information and communication technologies (ICT): (a) making markets more
competitive, eicient, accountable, and transparent and (b) ensuring equitable access for all. This has enabled the private sector to lead the rollout
of and investment in ICT. This same approach should be pursued with
broadband development. The role of government should be to enable,
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Broadband Strategies Handbook
facilitate, and complement market development, rather than to substitute
government decisions for market forces and public sector investment for
private investment.
Due to broadband’s importance, however, there have been calls to view
broadband as a public good in order to ensure afordable universal access
and spread the benefits across the full range of economic sectors.1 Based at
least partially on a public goods analysis, some countries have taken more
direct action to promote broadband development, establishing initiatives
and strategies where the government intervenes more directly to promote,
oversee, and universalize their broadband markets. This was particularly
the case in the wake of the economic crisis of 2008, as many governments
came to see broadband networks and services as a way to preserve and
enhance their economies. In 2009, for example, countries with diferent
economic philosophies included broadband in their economic stimulus
plans (for example, Australia), which indicated that they were no longer
averse to making strategic investments. By 2011, however, such policies
were being increasingly called into question as government debt levels
rose, in some cases dramatically, forcing austerity programs and corresponding cuts in government spending on a wide range of priorities,
including broadband.
Defining the Challenges: Barriers to Broadband Growth
As policy makers and regulators consider approaches to stimulating and
promoting broadband development, they need to recognize the full scope
of the challenges that must be addressed. These challenges tend to be multilayered and involve stimulating the supply of broadband infrastructure
and encouraging demand for broadband applications and services, as discussed in chapter 6. On the supply side, the problem is not as simple as just
building more networks; as operators roll out their broadband business
plans, issues of cost, service quality (data speeds), and technology choice
will also play important roles in decisions about how best to bring access to
a nation’s citizens. Even then, just building more networks or providing
access to all will not guarantee success. Governments may need to support
broadband development by encouraging demand for broadband in those
limited instances where the private sector does not generate useful and
relevant applications, services, and content. In sum, governments must
think of broadband as an ecosystem, holistically, with supply and demand
components, if they are to maximize their chances for broadband development success.
Policy Approaches to Promoting Broadband Development
39
Supply: Reaching Unserved and Underserved Users
As one considers policies and strategies to promote broadband development, one important goal is to ensure that access is available to the widest
possible user base. This means that networks need to be built out to reach as
many people as possible. But facilitating broadband supply presents at least
two significant issues. First, some areas in virtually every country have no
meaningful access to broadband services at all. This problem is most pronounced in developing countries, which have seen less investment in the
construction of networks outside metropolitan areas. This situation has
improved in recent years with the spread of wireless networks, but some
areas still lack network coverage. Second, some areas have networks in
place, but these networks are not capable of supporting broadband speeds
and services. These areas will need to be upgraded, either through the construction of high-speed wireline networks or through advanced wireless
networks (3G [third-generation mobile telecommunications systems] or 4G
[fourth-generation mobile telecommunications systems] services). In many
developing countries, where wireless penetration can far exceed wireline
penetration, upgraded wireless networks capable of providing true broadband speeds are expected to be the main supplier of broadband services.
Demand: Lowering the Barriers to Adoption
Improving the availability of broadband networks only addresses one
impediment linked to broadband development. Even with networks in
place and accessible, there are likely to be barriers due to lack of demand.
This problem involves people who have access to broadband network(s),
but are unable or unwilling to obtain service. Addressing lack of demand is
important because low adoption rates will leave networks underutilized.
This has at least two implications. First, from a network externalities
standpoint, fewer users reduce the economic and social utility of the networks. Where relatively few people can communicate online, the network
externalities are reduced since there is a smaller number of potential customers for businesses to serve. This further means that there may be fewer
local businesses and consumers ofering broadband-enabled services and
applications, such as video streaming services (for example, Hulu+), voice
and video communications (for example, Skype), and download services
for a variety of applications such as software and e-books.
Second, low adoption and use will undermine the business case of any
network—even those built with public funds. Fewer users mean that networks are correspondingly higher cost or that their costs are spread over
a smaller user base, making them relatively more expensive to build and
operate. Thus it is important for the overall goal of improving broadband
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Broadband Strategies Handbook
development for governments to focus on developing policies that not
only facilitate and encourage the building of broadband networks, but
also ensure that as many people as possible can and do use them. Barriers
to adoption vary and will likely not be the same in all countries, but some
broad categories are identifiable. In studies conducted to identify barriers
to Internet and broadband adoption, the primary reasons respondents
cite for not subscribing to broadband services can be grouped into four
main categories: (1) broadband is not relevant; (2) equipment or service is
too expensive; (3) individuals lack training in or are not comfortable using
broadband Internet services; and (4) broadband is not available (Pew
Internet and American Life Project 2010; EUROSTAT 2009). This is
not to say that demand inhibitors are exactly the same in all countries.
The factors seen as impediments to adoption in some countries may be
less of a factor in other countries, due to diferent social and cultural histories and experiences as well as diferent socioeconomic conditions
(Hernandez, Leza, and Ballot-Lena 2010, 4). Figure 2.1, which presents
survey data collected from nonadopters of Internet services in Brazil and
the United States, shows how some factors are more important than others.2 Respondents in the United States, for example, see digital literacy as
a much bigger problem than respondents in Brazil, who consider high
Figure 2.1 Reasons Given for Not Adopting the Internet in Brazil and
Broadband in the United States
percentage of respondents
60
50
40
30
20
10
0
Brazil
United States
lack of access
high cost
relevance
Internet access elsewhere
digital literacy
Sources: Brazil, Núcleo de Informação e Coordenação 2009; United States, FCC 2009.
Policy Approaches to Promoting Broadband Development
41
cost to be a larger issue. Therefore, each country must analyze and address
the demand-reducing factors on a case-by-case basis and tailor solutions
to the individual problems.
Developing Country-Specific Solutions
No “one-size-fits-all” approach will guarantee greater broadband deployment and adoption in every country. Political and economic conditions
vary, and each country is endowed with diferent technological resources.
Some countries have a relatively well-developed wireline telephone network that could support broadband deployment, while others have widely
deployed cable television networks that might be able to provide a measure
of facilities-based competition from the start. In yet other countries, various regulatory, political, economic, or other barriers to entry may prevent
potential competitors from ofering broadband services or building broadband networks.
This variance makes it unwise to propose a uniform solution to promote
broadband development. In some cases, the challenge will be to create
incentives so that widespread networks can be used to ofer broadband
services. In other countries, the main challenge may be to find ways to educate potential users about the benefits of broadband and train them to use
broadband applications and services. As a result, each country will have its
own unique circumstances that will drive policy and investment decisions.
However, the key objective for governments is to pursue policies that will
create an enabling environment that will foster broadband development.
Important lessons can be learned from those countries that have pursued broadband development policies (box 2.1).3 The focus in those countries has been on improving the incentives and climate for private
investment, a policy that even highly resource-constrained countries
might be able to follow (and many have successfully attained with mobile
telephony). Many of the policies and programs that have been developed
support private sector investments and call for specific, limited, and welljustified public funding interventions only in exceptional circumstances.
In particular, governments that are trying to promote the growth of underdeveloped markets should avoid policies and regulations that may reduce
private sector investment.
Government funding or policy should not have the efect of “crowding
out” private sector investment. For example, governments can encourage
private investments in many cases without direct subsidies, such as by
developing passive infrastructure—ducting, towers, and cable conduits—
which can significantly cut costs and create minimal market distortions
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Box 2.1: Public Sector’s Role in Fostering Broadband
Development: Key Lessons
• Government should focus on maximizing
competition, including removing entry
barriers and improving the incentives and
climate for private investment.
• Government should provide for specific,
limited, and well-justified public funding
interventions only in exceptional circumstances (for example, where governments are trying to promote growth of
underdeveloped markets).
• Government funding or policy should not
compete with or displace private sector
investment.
• Government should maintain a level playing field for competition by avoiding favor-
ing one company (or type of company, for
example, telephony vs. cable) over another.
• Subsidized networks should be open access (that is, they should offer capacity or
access to all market participants in a nondiscriminatory way).
• Government may need to regulate dominant providers to avoid market concentration or other adverse impacts on overall
market competition.
• Government should eliminate barriers to
content creation and refrain from blocking access to content, including social
networking sites, or restricting local content creation.
Source: Telecommunications Management Group, Inc.
(OECD 2008; Qiang 2009). Public investments should be considered only
when no or insuicient private investments are expected for a significant
period. Furthermore, to maintain a level playing field for competition even
with public investments, governments should seek to avoid favoring one
company (or type of company, for example, telephony vs. cable) over
another. For example, if and when governments intervene to increase network availability, it may be necessary to ensure that subsidized networks
are open access, meaning that network operators ofer capacity or access
to all market participants in a nondiscriminatory way. Nonetheless, there
may be cases where a dominant provider may need to be appropriately
regulated to avoid market concentration or other adverse impacts on overall market competition.
Developing countries in particular will also need to identify ways to
leverage limited resources to maximize impact, prioritizing programs based
on demand and market evolution, rather than shying away from policy
reform altogether. For most developing countries, the most efective
approach to promoting broadband development is likely to involve a mix of
approaches and policies that rely on private sector investment, coupled
with regulatory reform that will promote eicient and competitive markets
Policy Approaches to Promoting Broadband Development
43
(which will also increase private sector investment). Direct government
intervention should be limited to those cases where markets may not function eiciently (for example, providing service to high-cost areas) or where
larger social goals are clearly identified (for example, providing digital literacy training). The basic principle remains the same: governments should
only intervene based on sound economic principles, where the benefits of
intervention outweigh the costs. For example, particularly at the initial
stage of broadband market development, there may be a need for aggressive
government policies to generate demand, expand networks, and reach
underserved areas and communities.
How to Do It: Implementing Policies and
Strategies to Enhance Broadband Development
Governments have various ways to promote the development of broadband
networks and services in their countries. In most cases, the most efective
government strategies are those that seek to harness the power of private
sector investment to spur broadband growth. This handbook examines four
broad categories of government action in this regard: (a) legal and regulatory policies and reform, (b) universal access policies, (c) support for private
sector broadband network build-out, and (d) policies to stimulate demand
and spur adoption. These areas are discussed in more detail in chapters 3, 4,
5, and 6, respectively.
General Approaches to Promoting Broadband
As policy makers seek ways to promote the development of broadband in
their countries, certain general lessons can be learned from those countries
with more developed broadband networks and services. This section briefly
describes the general elements that governments should be aware of as policies and strategies are created.
Establish Specific Plans and Policies
Based on an evaluation of the supply and demand challenges that exist in a
country, the next step is developing specific policies and strategies to address
those challenges. This will entail setting concrete, measurable objectives for
improving the supply of broadband through infrastructure build-out as well
as promoting demand for broadband services and applications. Setting specific plans or policies will provide a clear sense of direction that will encourage investment as well as provide a blueprint for long-term action.
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A good plan should aim to promote eiciency and equity, facilitate
demand, and help to support the social and economic goals of the country.
The most successful plans will start with a clear vision of what broadband
development should be and contain well-articulated goals that can be
used to develop specific strategies to achieve success. Such frameworks
can launch or revise ambitious national broadband visions, including definitions of broadband, service goals (including national and rural coverage), transmission capacity, service quality, and demand-side issues such
as education and skills development. The government of the Republic of
Korea, for example, was one of the early broadband leaders. It has developed six plans since the mid-1980s that have helped to shape broadband
policy in the country. The Korea example shows that policy approaches
can efectively move beyond network rollout and include research, manufacturing promotion, user awareness, and digital literacy. It also highlights the possibilities for sector growth based on long-term interventions
focused predominantly on opportunity generation rather than on direct
public investment.
For many countries, the development of an extensive national broadband
plan or strategy is an important step toward elaborating more specific
broadband development policies. The countries highlighted in table 2.1
have national broadband strategies containing specific broadband development goals.
As table 2.1 shows, however, countries difer in their approach to setting
targets and goals. Some focus on improving access, while others set specific
targets for data transfer speeds.
But policies and programs to spur broadband development have not been
confined to developed countries. Other countries have also sought to
develop national broadband strategies, as shown in box 2.2.
Allow Ample Opportunity for Stakeholder Input on Plans and Policies
The development of broadband plans should involve the participation of all
relevant stakeholders, both public and private. As such, governments
should provide for a public consultation process that allows ample opportunities to obtain input from the private sector, consumers, and other relevant stakeholders. Given the complexity, varied issues, and broad impact of
broadband, these transparent discussions are an important part of bringing
stakeholders to the table in an open, objective, and neutral manner so as to
maximize cooperation between the public and private sectors. Such services make it much easier for all parties, but particularly ordinary citizens,
to learn about and comment on the issues being considered. A variety of
mechanisms can be used to foster stakeholder input—presentation of filings
Policy Approaches to Promoting Broadband Development
45
Table 2.1 Publicly Stated Policy Goals for Broadband Service Delivery and Adoption in Selected
Countries
Country
Goal for service delivery, access, and adoption
Brazil
Access to broadband for 50 of every 100 households
Finland
Legal right of all citizens to 1 megabit per second (Mbit/s) access at affordable levels
by 2010; by year-end 2015, 99% of all permanent residences to have access, within
2 kilometers, to an optical fiber or cable network delivering 100 Mbit/s service
France
By 2012, ubiquitous access to 512 kilobits per second (kbit/s) service at monthly
rates at or below €35
Germany
75% of households with high-speed broadband access at transmission rates of at
least 50 Mbit/s by 2014
Malaysia
By year-end 2010, broadband penetration rate for households of 75%
Morocco
One out of three households connected by 2013
South Africa
Broadband penetration rate for households of at least 15% by 2019
Sweden
By 2010, near ubiquitous access to 2 Mbit/s service; 40% of households with access
to 100 Mbit/s connections by 2015 and 90% by 2020
United
Kingdom
By 2012, 2 Mbit/s service to all households
United States
By 2020, 100 million households with access to actual (not advertised) speeds of
100 Mbit/s and universal connections with actual speeds of at least 4 Mbit/s
download and 1 Mbit/s upload
Source: Rob Frieden for the World Bank and Telecommunications Management Group, Inc.
by stakeholders, workshops, hearings, and inputs made through an online
comment mechanism on a regulatory website or blog. Moreover, as e-government services have expanded, the efectiveness of public consultations
has grown as well. The broadband development process will benefit from
the broader range of perspectives that can now be presented to regulators
and policy makers. Consultations and discussions are also proven mechanisms for helping regulators and ministries to understand the varying challenges and potential opportunities that are part of the reform process, for
increasing capacity and knowledge, and for exchanging ideas in an open,
transparent setting.
Recognize and Take into Account That Implementation of the Plan Will
Take Time and Persistence
In many cases, the success of programs that have increased broadband
adoption has simply been the result of longevity. Some countries prioritized broadband in the 1990s or early 2000s and have been promoting
broadband for quite a number of years, giving them a meaningful head start
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Broadband Strategies Handbook
Box 2.2: Broadband Strategies in Middle-Income Countries
Chile was the first Latin American country to
announce a national broadband strategy. The
strategy identifies ICT as a priority for economic development. Chile has also planned
and implemented ICT policies from both the
supply and demand sides. On the supply
side, the government has authorized four
Worldwide Interoperability for Microwave
Access (WiMAX) operators as regional providers, and the regulator plans to award additional spectrum to a new 3G operator. The
demand-side strategy has included programs for e-literacy, e-government, and ICT
diffusion. For example, almost all taxes
are filed electronically, and government eprocurement more than doubled the volume
of transactions processed between 2005
and 2008. The government has also promoted broadband use by municipalities. By
2008, almost all municipalities had Internet
access, and 80 percent had websites. In
May 2010, Chile’s wireline broadband penetration was 10.66 percent, while mobile
broadband penetration was less than half
that, but growing at a much faster rate.
Turkey’s government recognizes the importance of a vibrant telecommunications market and is keen to promote the spread of
broadband. For instance, many educational
institutions have been given broadband access. The Information Society Strategy for
2006–10 aims to develop regulation for effective competition and to expand broadband
access. Targets include extending broadband
coverage to 95 percent of the population by
2010 and reducing tariffs to 2 percent of per
capita income. The regulator has also considered issuing licenses for the operation of
broadband fixed wireless access networks in
the 2.4 gigahertz (GHz) and 3.5 GHz bands.
In June 2010, Turkey had penetration rates of
9 percent for wireline broadband and 4 percent for mobile broadband.
Malaysia developed its Information, Communications, and Multimedia Services (MyICMS) 886 Strategy in 2006, setting several
goals for broadband services. One was to increase broadband penetration to 25 percent
of households by the end of 2006 and 75 percent by the end of 2010. Although these targets were not met, the results have been
impressive: the household broadband penetration rate in the country topped 53 percent
in October 2010. Now the government is focusing on WiMAX, 3G, and fiber to the home
(FTTH) platforms to boost broadband adoption. To that end, the government is funding a
fiber optic network that will connect about
2.2 million urban households by 2012. The
network will be rolled out by Telekom Malaysia
under a public-private partnership, where the
government will invest RM 2.4 billion
(US$700 million) in the project over 10 years,
with Telekom Malaysia covering the remaining costs. The partnership is expected to cost
a total of RM 11.3 billion (US$3.28 billion).
Sources: Kim, Kelly, and Raja 2010; Cisco, “Broadband Barometer for Chile,” Press Release, February 8, 2011,
http://newsroom.cisco.com/dlls/2011/prod_020811.html; “Broadband Penetration Target for 2010 Exceeded,
says Muhyiddin,” Malaysian Insider, October 27, 2010, http://www.themalaysianinsider.com/Malaysia/article/
broadband-penetration-target-for-2010-exceeded-says-muhyiddin/.
Policy Approaches to Promoting Broadband Development
47
over other countries. For example, in 2000, Sweden enacted an information
technology (IT) bill, which established the pillars of its ICT strategy as
“competencies, confidence, and access.” Sustained, focused eforts with continual updates over a number of years contribute to the long-term success
of any broadband strategy. Conversely, seeking a “one-shot” solution that
can be achieved with minimal time and resources is not likely to produce the
best long-term outcome.
Develop Research Mechanisms to Track Progress of the Plan
As broadband technologies and applications evolve over time, the various
segments of the broadband market will change as well. Further, notions of
digital literacy and underserved populations will also be in flux. Various
agencies and organizations are already tracking various parts of the broadband equation. To keep up with this dynamic and ever-changing sector, governments may wish to create an ongoing, multiyear, broadband-specific
research program that tracks population use, ongoing barriers, and levels of
digital literacy (box 2.3). This program could complement the ministry’s or
regulator’s eforts to encourage the supply-side parameters of broadband
Box 2.3: General Elements for Governments to Consider When
Creating Policies and Strategies
• Establish specific plans and policies that
define broadband development and contain concrete, measurable objectives that
can be used to develop specific strategies
to achieve success
• Ensure that plans address mechanisms
for improving the supply of broadband
through infrastructure build-out as well as
for promoting demand for broadband services and applications
• Allow ample opportunity for stakeholder
input in developing the plan
• Be realistic when establishing objectives:
recognize and take into account that implementation of a plan will take time and
persistence
• Focus on long-term success by developing sustained, focused efforts (with continual updates) over a number of years
• Avoid seeking a “one-shot” solution that
can be achieved with minimal time and
resources, as this approach is not likely to
produce the best outcome
• Consider developing an ongoing, multiyear broadband-specific research program
for tracking use, ongoing barriers, and levels of digital literacy and for determining
whether objectives are being met or modifications are needed
• Assign one coordinating agency responsibility for implementation of the plan
Source: Telecommunications Management Group, Inc.
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Broadband Strategies Handbook
(for example, network build-out, speeds, and capabilities). The program
could be housed within the agency responsible for broadband development or could be run out of one of the existing government agencies that
perform such research. The ongoing issues of measurement and assessment, including international benchmarking, are discussed in more detail
later in this chapter.
Pilot projects can play an important role in ongoing research and development (R&D) eforts related to broadband deployment. Such projects
can help to demonstrate the viability of a new technology or service, but,
even more important, they may help to identify those policies and strategies that do not work very well. Pilot projects may be a cost-efective
approach to broadband development, as they allow concepts, plans, and
methods to be tested on a small scale before committing larger amounts of
resources. In the United Kingdom, for example, Broadband Delivery U.K.,
a unit of the government, gives out grants (supplemented with private
funds) for pilot projects to build or upgrade broadband networks in rural
areas. Once the upgrades have been completed, Internet service providers
(ISPs) gain access to the infrastructure, which may use any technology, on
a wholesale basis.
Provide a National Focal Point for Broadband
and Develop Broadband Capacity
To optimize the benefits of broadband, governments need a comprehensive national-level focus on promoting broadband use, a clearinghouse for
successful projects, and a consistent evaluation of what works and what
does not. An important part of establishing and maintaining that focus
over time will be developing capacity-building programs for government
oicials to provide education on how broadband can provide benefits
across many sectors of the economy. Such programs, in turn, can help to
shape the design of efective broadband development strategies throughout all levels of government—from local training programs to national network regulatory regimes.
Numerous countries have established agencies or special oices specifically to oversee broadband development issues. In Sweden, for example,
the IT Policy Strategy Group recommended the creation of an internal
strategic coordination function to oversee “holistic” IT policy development
and implementation. This internal coordination function was also envisioned to improve coordination between central government, local authorities, county councils, and the business sector. The United Kingdom now
has a minister of digital inclusion. Brazil has appointed a digital inclusion
Policy Approaches to Promoting Broadband Development
49
secretary housed within the Ministry of Communications, which will be in
charge of the National Broadband Plan as well as of all digital inclusion
projects that are currently being carried out by various branches of the
federal government.
Often, broadband development eforts are overseen by the ministry
responsible for communications or the regulator. In many cases, this
responsibility is exercised in conjunction with a comprehensive broadband
development plan. In Singapore, for example, the government developed
and is actively pursuing its Intelligent Nation 2015 master plan, which is
designed to transform Singapore into “an intelligent nation and a global city,
powered by info-communications” (IDA 2009). As part of that plan, a nextgeneration nationwide broadband network (NBN) is being developed to
bring fiber to homes and businesses across the whole territory. A wireless
broadband network is also part of the strategy. All of these eforts are
being overseen by the Info-communications Development Authority of
Singapore (IDA), which is providing government leadership in the development of these networks. In India, the Ministry of Communications and
Information Technology established an advisory group with members from
telecommunications companies, industry associations, and various government departments (including health, education, and rural development) to
help to guide India’s plan for a national fiber network that is envisioned to
reach all villages and towns with more than 500 people. India’s approach is
particularly noteworthy because it recognizes not only the importance of a
central focal point, but also the cross-cutting impact of broadband on various sectors of the economy and the need for a coordinated approach that
involves all relevant agencies.
The decision regarding whether to set up such an agency or oice will
depend on the local situation in each country and will need to take into
account existing laws and institutional responsibilities as well as the ability
of the government to provide adequate funding for such an activity. For
developing countries with limited financial and human resources, devoting
a whole agency or branch of government to broadband development may
seem ambitious. Nevertheless, given the importance of broadband development and its potential role as a general-purpose technology (GPT) capable of supporting advances in many sectors of any economy, developing
such human resource capacities will be critically important.
The issues surrounding the development of efective broadband policies
are extremely complex and cover a wide range of disciplines, including
engineering, law, and economics, among others. This will require governments to build capacity so that trained, knowledgeable professionals can
guide the implementation of a country’s broadband plan from concept
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through construction and adoption. Without such leadership, even the best
laid plans may fail through inattention and neglect.
Develop Policies for Both Sides of the Broadband Coin:
Supply and Demand
The experience in high-penetration countries shows that successful broadband difusion requires that both supply- and demand-side factors be
addressed (figure 2.2). While supply-side policies focus on promoting the
build-out of the network infrastructure over which broadband applications
and services can be delivered, the main goal of demand-side policies is to
enhance the awareness and adoption of broadband services so that more
people will make use of them.
The interaction of both supply- and demand-side factors is crucial to
achieving the highest penetration and adoption of broadband. However,
these factors do not always appear naturally, as market failures may hinder
their development. For instance, broadband difusion can be limited if the
market is not able to reach the required critical mass that leads to a sustainable growth cycle. More important, even if both types of factors (that is, supply and demand side) are present in an economy, they will not reach their
full potential if they are not coordinated, as lack of coordination may result
in slow supply of broadband infrastructure or in poor demand and uptake
Figure 2.2 Framework for Government Intervention to Facilitate Broadband
Development
coordination of
supply and demand
supply
pushes
supply
pulls
demand
demand
providing
public
goods (for
example,
education)
structure of the economy
enabling
the
structure
of the
economy
Source: World Bank 2010.
Policy Approaches to Promoting Broadband Development
51
once networks are available. For this reason, countries with high rates of
broadband penetration have comprehensive broadband policies that coordinate both supply- and demand-side actions.
In assessing the strategic options for improving broadband build-out and
adoption (supply and demand), one must remember that many factors are
involved and that no two countries have followed identical routes. Nevertheless, it is possible to recognize common elements in national broadband
success stories (table 2.2). In reality, most countries will use a mix of policies, with supply-side policies generally focusing on how to stimulate private sector investment in networks, especially in the early years, and
demand-side policies being more long term and focusing on how governments can help to drive broadband demand and adoption.
Build Infrastructure: Promoting the Supply of Broadband
Most developing countries have not yet seen their broadband markets penetrate more than a very small segment of their population. Hence, the government’s role is even more important in promoting and accelerating
growth of the broadband market. Promoting the build-out of broadband
networks throughout a country will likely require governments to pursue
multiple strategies, depending on local circumstances. As each country has
its own unique history, regulatory structure, economic conditions, social
goals and expectations, and political processes, the path a country follows to
improve broadband networks and services will necessarily have to reflect its
specific advantages and disadvantages.
Nevertheless, some general policy approaches may be applicable across
the world. It is generally accepted that the private sector should be the primary driver of broadband development in most cases. Particularly when
government debt is high and resources are limited, suicient public money
may not be available for broadband infrastructure spending. Consequently,
policy makers and regulators must consider how best to attract and encourage private sector involvement and investment in broadband. This, in turn,
will require governments to conduct an honest evaluation of the extent to
which their country represents—or can be made into—a profitable market
opportunity for private sector investors and operators. Questions to be
answered may include the following: Are companies willing to invest? If
not, why not? Will such companies drive the broadband market forward on
their own, or will they need help? What government strategies, policies, and
regulations can foster and support private sector initiatives, and what policies may hold back investment? Many countries have taken this approach:
they have attempted to facilitate and, where possible, accelerate, broadband
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Policy Approaches to Promoting Broadband Development
Table 2.2 Elements of Broadband Strategies in Selected Countries
Strategy
Brazil
Colombia
Establish open-access
wholesale networks
¸
Encourage private sector
investment
¸
Include broadband under
universal service definition
¸
Encourage demand for
broadband services
¸
¸
Promote, improve, and
expand public-private
partnerships
¸
¸
Subsidize local (citywide),
regional, or national ventures
¸
Finland
France
¸
¸
¸
¸
¸
¸
a
¸
¸
¸
Singapore
South
Africa
United
States
¸
¸
¸
¸
¸4
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
¸
b
¸
¸
Oman
¸
¸
Promote facilities-based
resale competition
Mandate local loop
unbundling (LLU)
Japan
¸
¸
¸
¸
¸
¸
Source: Rob Frieden for the World Bank and Telecommunications Management Group, Inc. For a list of weblinks to each of these national broadband plans, see appendix A
in this volume.
a. Article 155 of Brazil’s Telecommunications Law, as well as various other regulatory instruments issued by Anatel, notably Order no. 172 of May 12, 2004, issued by the
Superintendent of Public Services of Anatel, requires wireline providers to unbundle. However, because wireline network unbundling prices are high, in practice, unbundling
does not really occur in Brazil. Anatel has identified as a short-term priority the need to review its policies with regard to LLU as well as to adopt a pricing model for network
use so that LLU can be mandated.
b. Under consideration as of 2011.
53
rollout through regulatory measures rather than more direct forms of intervention such as investment.
In the context of a private sector–led approach to broadband development, it is recognized that allowing competition to flourish will usually lead
to greater deployment and eiciencies in network build-out. Competition in
broadband supply is crucial for reducing prices, improving quality of service, and improving customer service (ITU 2003). It has a positive efect on
market growth, as it expands access, increases afordability, and augments
the value proposition. Conversely, lack of access to infrastructure and high
prices can act as strong barriers to broadband difusion. If no broadband
infrastructure is available, consumers cannot access the service. Even if a
network is available, it will be of little use for consumers if the service is not
afordable. The government, therefore, should place a priority on developing enabling policies that will facilitate competition throughout the supply
chain to encourage deployment and lower consumer prices.
However, in certain instances, competition and market forces will not be
suicient for broadband to develop. In those cases—due to factors such as
geography or low population density, for example—private sector players
will be unwilling to invest capital where they perceive that they will get a
low (or no) return on their investment. For these areas, it will be necessary
for the government to intervene more directly to ensure that un- and underserved areas and populations are able to get access to broadband networks
and services.
Use Competition to Promote Market Growth
A key lesson from countries surveyed in Kim, Kelly, and Raja (2010) is that
competition is critical to successful broadband market promotion. Each
country studied used diferent mechanisms to spur competition and promote broadband market growth. Some focused primarily on fostering facilities-based competition, while others focused more generally on increasing
the level of competition at the service level. The presence of established,
competitive telecommunications operators in many countries also contributed to broadband market development.
In the long term, liberalization and promotion of competition among
facilities are the best ways to guarantee lower costs. For example, the initiation of the Southern and East Africa Cable System (SEACOM) network that
links Kenya, Madagascar, Mozambique, South Africa, and Tanzania resulted
in Kenya Data Networks (KDN), a Kenyan data services provider, announcing that it would reduce its Internet prices by up to 90 percent.5 However,
liberalization may be diicult in some developing countries, particularly
those that have small populations, are geographically isolated, or are small
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island developing states (SIDSs)6 with limited access to multiple sources for
connectivity. Specific countries may exhibit features that make developing
competitive markets in certain segments of the supply chain particularly
diicult.
Develop Enabling Policies to Eliminate Bottlenecks in the Broadband
Supply Chain
Broadband networks are not simple systems; they consist of multiple components, all of which must work together in order for broadband services to
be delivered to end users in the most eicient and efective way possible.
The technologies that make up the “broadband supply chain” are discussed
in detail in chapter 5, while the legal and regulatory issues associated with
each level of the supply chain are addressed in chapter 3.
In order to be most efective, competition must be present throughout
the diferent levels of the broadband supply chain (figure 2.3). If not, bottlenecks will arise and the benefits of broadband difusion will be severely
reduced. As such, it is important to develop enabling policies to eliminate
bottlenecks across the broadband supply chain. For instance, if domestic
and local levels are competitive but access to international connectivity is
limited or too expensive because there is only one provider of submarine
cable, broadband prices will remain high and difusion will not achieve its
Figure 2.3 Addressing Bottlenecks in Broadband Networks: Policies on the
Supply Side
Supply Chain
international connectivity
domestic backbone
metropolitan connection
local connection
Addressing all levels of the supply chain
• International coordination
• Access to landing stations (for example,
submarine cable)
• Interplatform competition
• Spectrum availability
• Infrastructure sharing
• Functional separation
• Subsidies, incentives for infrastructure development,
direct rollout (open-access model)
• Elimination of barriers
• Technology, standard neutrality
• Unbundling of the local loop
Source: Adapted from World Bank 2010, 56; World Bank 2009.
Policy Approaches to Promoting Broadband Development
55
potential. The same can happen if all levels of the supply chain are competitive but local connectivity is limited to a single operator.
Recognizing the role of competition, high-penetration countries tend
to address competition issues throughout the supply chain. However, the
particular conditions in each country may lead to the creation of different bottlenecks and require diferent policy approaches applicable to
their specific broadband market. As a result, not all countries have identified the same bottlenecks in the supply chain, nor have they adopted the
same policies to ensure competition in these markets. Governments can
foster competition in each level of the supply chain through various public policy options. Additional information on these issues can be found in
chapters 3 and 5.
Promote Efective Competition and Encourage Investment
Some issues involved in promoting competition do not apply to one particular part of the broadband supply chain, but rather involve the interaction
between diferent levels or policies that may be applied in a complementary
fashion across levels. Furthermore, the dominant service providers in a
country often operate at several levels in the supply chain. Thus, policies
may be needed to ensure that they do not use their dominance in one market
segment to afect other levels of the supply chain. For example, policies that
foster open access to network infrastructure can be implemented at all levels, and interconnection agreements are needed between operators at all
levels as well (see chapter 3 for more detailed discussion of these issues).
Access to Infrastructure
Network operators and service providers wishing to enter the downstream
market (that is, building access networks and ofering services to customers) must either build their own backbone network or access the network
of another operator. The terms under which operators can obtain access
to the backbone networks of other operators will have a significant impact
on the success of their business and will influence whether efective competition in the downstream market develops. At the same time, the demand
created by these downstream operators will afect the financial viability of
the backbone networks, since they are the entities that generate traic and
revenues on those networks. Thus, by promoting efective competition in
the downstream market, governments will help to stimulate backbone network development.
The role of the regulator is crucial, since it often defines and enforces the
terms of access. The decision about whether to regulate directly the terms
of access to infrastructure has a major efect on the investment incentives.
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In Europe, for example, where the incumbent operator historically dominated both the local loop and the backbone markets, the priority for regulators was to provide access to these operators’ networks for companies
entering the markets, since this was seen as crucial to the development of
competition. Subsequently, as competition has grown, regulators have
developed systems for determining which operators should be regulated
and how, and these systems are based on a well-established framework of
general competition regulation. In developing countries (for example, most
countries in Sub-Saharan Africa), such frameworks often do not exist. Regulators therefore need to develop alternative sets of guidelines to govern
how access to the infrastructure of private operators in competitive markets
is regulated. This involves a trade-of between supporting the development
of competition in the downstream market and maintaining the incentives to
invest in upstream infrastructure. In areas of a country where public support is provided for backbone infrastructure, this trade-of is relatively
straightforward, since one of the conditions of public support typically
includes the provision of wholesale services on regulated terms. In other
areas of the country and in other parts of the infrastructure, the trade-of
may be more diicult to determine.
Infrastructure Sharing
Many governments have sought to encourage deployment of networks and
improve the overall competitive situation by allowing or, in more limited
instances, even requiring infrastructure sharing. In most cases, infrastructure sharing has been instituted in areas where having competing physical
infrastructures was not considered economically viable (such as in rural or
remote areas) or where the construction of competing infrastructures could
prove unacceptable for social or political reasons (too much disruption from
repeated construction projects). By sharing network infrastructure, builders of networks can significantly reduce costs and make investment in them
more commercially viable. This is particularly relevant for fiber optic networks in rural areas, where the revenues generated by such networks are
low. In some cases, operators have a commercial incentive to enter into
these sharing arrangements. For example, in Nigeria, where there has been
extensive fiber optic cable network rollout, operators have entered into a
variety of network-sharing agreements aimed at reducing costs and improving the quality of supply. In addition, operators may also be required to
install multiple fibers in their cables, even if they only need one. These additional “dark” (unused) fibers may not be used initially, but may be held in
reserve for future use by an existing operator or new entrant. This may be a
very cost-eicient way to manage fiber optic networks because installation
Policy Approaches to Promoting Broadband Development
57
(and the associated civil works costs) only needs to be done once as opposed
to multiple rounds of digging to install multiple fibers.
Including broadband in land use planning eforts may also promote
build-out and reduce costs. For example, requiring all new housing and
building developments to include broadband infrastructure, particularly
fiber cables, alongside other utility requirements, including electricity and
water, can help to lower long-term costs by ensuring that broadband infrastructure is laid at the outset, which avoids the higher costs associated with
retrofitting.
With wireless networks, particularly in low-density areas where the economics may not support multiple competing infrastructures, carriers can
share cell towers and some backhaul facilities as a way of reducing network
build-out costs and bringing competition to such areas more quickly. Such
arrangements have slowly been gaining acceptance in both developing and
developed countries, particularly as carriers seek to manage costs as they
expand their networks or upgrade their services to support higher-speed
broadband.7 However, in some cases, it may be necessary to overcome resistance from incumbents or dominant operators, since they are likely to
accrue relatively little benefit from sharing with competitors.
Access to Rights-of-Way
Most of the cost of constructing wireline networks lies in the civil works. By
lowering the barriers to and costs of accessing the rights-of-way associated
with public infrastructure (for example, roads, railways, pipelines, or electricity transmission lines), governments can significantly increase incentives for private investment in broadband networks at all levels of the supply
chain. Such incentives can be achieved in several ways, but primarily by
(a) making rights-of-way readily available to network developers at low
cost, (b) simplifying the legal process and limiting the fees that local authorities can charge for granting rights-of-way, and (c) providing direct access to
existing infrastructure owned by the government through state-owned
enterprises (for example, a railway company partnering with one or more
operators to build a fiber optic cable network along the railway lines). Such
access can also be valuable to wireless operators as they seek to locate towers to expand services.
Accounting and Functional Separation
In those countries where bottlenecks persist in the supply chain and especially where the historic monopoly provider still retains a dominant position in the backbone, middle-mile, or local access segments, governments
have intervened even more directly. To bring added transparency to the
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operations of a dominant provider, regulators have sometimes required
the provider to separate the accounting for diferent parts of its business—
keeping wholesale and retail accounts separate, for example. This better
enables stakeholders to identify unfair discrimination against nonailiated providers and can help to ensure that competition takes place on fair
and equal terms.
One of the most severe remedies imposed by regulators is functional
separation. Functional separation requires the incumbent operator to
establish a new business division—separate from its other divisions—to
manage the network and provide wholesale services to all retail service providers on a nondiscriminatory basis. Functional separation is not the same
as (and is less severe than) structural separation or the spinof and sale of
network operations: the incumbent operator maintains ownership of the
network division, but it must be independent from the operator’s retail and
commercial divisions. In many cases, other regulatory obligations are used
as a complement to functional separation, such as local loop unbundling
(LLU) or bitstream obligations. As (fiber) broadband networks are being
deployed, governments have begun to consider whether similar obligations
should be placed on those new or upgraded networks. Finally, as a last
resort, full structural separation may be warranted if the government does
not believe that anticompetitive conduct—either by an incumbent or by a
new broadband or fiber optic network operator—can be otherwise controlled. This entails the creation of a totally separate entity—for example, to
build and manage the network’s physical infrastructure. The various types
of separation policies and examples are discussed in chapter 3.
Table 2.3 presents an overview of some of the policies that can be used to
promote the supply of broadband. For a more in-depth view of the various
policies and programs for promoting the build-out and uptake of broadband, see appendix B to this volume.
Encourage the Adoption of Broadband: Promoting Demand
Countries are beginning to view broadband promotion not only as a problem of supply of broadband (access to networks), but also as a problem of
demand for it (adoption by businesses, government, and households). As a
result, demand facilitation is becoming an important part of broadband
development strategies and policies. Chapter 6 discusses demand-side policies in more detail.
Most of the experiences to date in stimulating demand for broadband
applications and services come from developed countries. Similar policies
may work more or less well in developing countries, where economic and
Policy Approaches to Promoting Broadband Development
59
Table 2.3 Checklist of Policies to Promote the Supply of Broadband Networks
Goal
Policy
Promote competition and investment
• Implement policies or regulations to create conditions to
attract private investment in broadband networks
• Implement technology- and service-neutral rules or policies
giving operators greater flexibility
• Promote effective competition for international gateways
and possible policies for service-based competition for
gateway operators to provide access to their facilities on a
wholesale nondiscriminatory basis
• Develop policies to facilitate interplatform competition
Encourage government coordination
• Adopt common technical standards and facilitate the
development of international, regional, and national
backbones
• Incorporate broadband planning into land use and city
planning efforts
Allocate and assign spectrum
• Assign additional spectrum to allow new and existing
companies to provide bandwidth-intensive broadband
services
• Allow operators to engage in spectrum trading
Promote effective competition and
encourage investment
• Encourage multiple providers to share physical networks
(wireline and wireless), which can be more efficient,
especially in low-density areas
Facilitate access to rights-of-way
• Facilitate access to public rights-of-way to ease the
construction of both long-distance (backbone) and local
connections
• Develop policies that provide open access to governmentsponsored and dominant-operator networks to enable
greater competition in downstream markets
Facilitate open access to critical
infrastructure
• Develop policies that provide open access to governmentsponsored and dominant-operator networks to enable
greater competition in downstream markets
• Consider implementation of LLU if necessary to facilitate
competition
Source: Telecommunications Management Group, Inc.
social conditions difer; the ability to adapt the lessons learned and successful policies to local needs will be critical. This particularly applies to policies
that are focused on demand-side issues, where culture and socioeconomic
status are important variables. For example, with the first availability of
broadband services, demand (measured by subscriber growth, for example)
may be initially very high—reflecting pent-up demand among users who
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previously had no broadband access. In such cases, governments may
decide that there is no need to stimulate demand. In Kenya, for example, at
the end of September 2010, broadband subscriptions increased to 84,726
subscribers from 18,626 in the previous quarter (a growth rate of over
450 percent) without any specific attempt by the government at demandside stimulation (CCK 2011).
As time passes, however, growth in demand is expected to slow down as
the potential pool of users evolves from motivated early adopters to potential users who do not necessarily understand all that broadband has to ofer
and may be concerned with the potential threats to privacy and data security. This is when government policies to stimulate demand may have the
most beneficial impact. By educating users through digital literacy programs, governments can help to drive adoption to a broader user base and
educate them at the same time. Such programs may become increasingly
important as adoption rates rise in order to avoid the social and economic
inequities associated with broadband “haves” and “have nots.” One important issue that policy makers should consider as they address broadband
demand development is the opportunity cost of using (limited) public moneys for broadband demand programs as opposed to other worthy public
uses. In some cases, governments have decided that stimulating broadband
demand was important enough for reaching national economic and social
goals. This may not be the case in all countries, particularly in countries
with the fewest resources to spare.
The role of government in stimulating demand will vary by country. In
some countries, with populations that are more technically literate, there
may be less need for direct government intervention. The appeal of social
networking and video streaming as an entertainment source may be more
self-evident than more mundane uses such as e-government or multimedia
mail. In such cases, demand will be driven by attractive oferings made
available by private sector developers. In other cases, however, basic illiteracy, lack of understanding of what the Internet can do, or costs may
require governments to step in to fill out and aggregate demand, particularly among at-risk groups. Policies to support digital inclusion will be an
important leveler to ensure that broadband can bring benefits to all segments of the population.
Eforts to increase demand typically fall into three categories: awareness,
afordability, and attractiveness. In order to drive broadband adoption and
use, policies must address these three categories, especially targeting those
populations that are generally less likely to adopt and use broadband Internet services. Mechanisms to address awareness include improving digital
literacy and encouraging the use of broadband in education and by small
Policy Approaches to Promoting Broadband Development
61
and medium enterprises (SMEs). Eforts to address afordability focus on
the costs of both hardware and services, and attractiveness initiatives
include promotion of services, applications, and local content as well as
delivery of government services over the Internet (e-government). E-literacy
and e-skills, in particular, are vital for broadband difusion to succeed. Recognizing this, governments with high penetration and adoption rates have
been very active in trying to raise e-literacy. The three main barriers to
broadband adoption are discussed in further detail in chapter 6.
Table 2.4 provides an overview of some of the policies that governments
can use to promote demand for broadband applications and services, including programs to provide users with a place where they can obtain access.
Consider Other Sectors of the Economy and Society
As policy makers and regulators consider policies and strategies to promote broadband development in their countries, they need to consider the
issues in the broader context of larger economic and social goals.
Table 2.4 Checklist of Policies to Promote Demand for Broadband
Focus
Infrastructure
Policy
• Connect schools to broadband networks
• Make government an anchor tenant
• Expand access to underserved communities with universal service fund
support
• Construct community access centers
• Consider expanding universal service to include broadband
Services, applications,
and content
• Undertake government-led demand aggregation
• Provide e-government applications
• Promote creation of digital content
• Implement reasonable intellectual property protections
• Ensure nondiscriminatory access
Users
• Provide low-cost user devices in education
• Develop digital literacy programs for citizens
• Address content and security concerns
• Facilitate affordability of broadband devices
• Monitor service quality
• Support secure e-transactions
• Provide training to small and medium enterprises
Source: Telecommunications Management Group, Inc.
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Broadband applications and services are increasingly intersecting with
virtually every other major sector of the economy—including education,
health, banking, the environment and climate change, and cyber-security—
and broadband policy makers and regulators will likely need to coordinate
their eforts with their counterparts in other areas of the government to
achieve larger policy objectives, whether they be social, economic, or
political.
Tackling such cross-sector goals will require close coordination among
various regulators so that policies and approaches support each other. It
will also require policy approaches and regulatory frameworks that are
broad enough to allow policy makers to consider the relevant interrelated
issues as well as a high degree of committed leadership at the most senior
levels to ensure that all parts of government work together to promote the
development of broadband as part of the more general goals of promoting
social and economic growth. Despite increasing recognition of the importance of broadband and its impact on the policies and implementation of
programs in other sectors, most countries’ laws do not typically address the
jurisdictional issues related to other sectors of the economy vis-à-vis
broadband. As a result, it will be increasingly important for governments to
adopt provisions outlining the cooperative arrangements between the
broadband regulator and other government agencies. For agencies that are
not used to working together—and that come to the same issues with vastly
diferent points of view—such guidelines or arrangements will be crucial to
ensuring that policies and decisions are mutually supportive of both broadband development and sector-specific goals and programs. This section
briefly describes how broadband development policies interact with policies in other key sectors of a country’s economy. Specific examples of such
collaboration and the ways broadband can support other sectors of the
economy are found in chapter 1. To view how applications and services
developed within these other sectors can help to drive demand for broadband, see chapter 6.
Financing Broadband Development
In the past 20 years, markets have liberalized, competition has increased,
and the private sector has been the primary vehicle for financing telecommunications projects, especially in profitable areas. Nonetheless, in
many developing countries, significant barriers to entry persist and
legacy- dominant carriers continue to control markets and distort competition. Thus, the government’s primary role has been twofold: to develop
Policy Approaches to Promoting Broadband Development
63
policies that support and encourage private sector investment, while also
seeking more efective ways to regulate dominant carriers and promote
competition.
Today, most countries emphasize competition and a significant role for
private sector investment to spur the growth of their broadband markets. In
developed countries and some developing countries, the majority of the private investment likely comes from within the country itself. In the least
financially endowed countries, however, private investment may also come
from foreign sources. Governments seeking to promote broadband development in their countries should bear in mind that investors and companies
around the world may be looking for opportunities to invest in good projects
wherever they are located. Thus, attracting foreign private investment—
through appropriate incentives, a clear regulatory and legal environment,
and a good development plan—may be important components of a broadband strategy.
Where governments choose to finance broadband networks, they should
avoid replacing private investment or substituting for the normal operation
of market mechanisms. Rather, governments should facilitate and support
private sector investment and be capable of developing, promoting, and
implementing timely policies based on a thorough understanding of the
market. For this reason, an essential element in efectively deploying broadband is the ability to find an appropriate financing model in which government oversight and intervention are focused mainly on funding and
financing only those initiatives targeted at addressing actual or expected
market failures in the availability of a broadband network and at driving the
early adoption of broadband services.
In addition to private sector investment and direct funding by governments, several other options exist for countries to finance broadband
deployment, including government grants or subsidies to both private and
public entities and to partnerships where private funding is matched by
government. The following sections briefly address the main ways that
governments can support the financing of broadband development.
Government Support to Enhance Private Investment
As stated by the 2004 report of the Task Force on Financial Mechanisms for
ICT for Development, the engine of ICT development and finance over the
past two decades has been private sector investment, including foreign
direct investment by an increasingly diverse and competitive array of multinational and regional ICT sector corporations (Task Force on Financial
Mechanisms for ICT for Development 2004, 22). Companies target and
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provide service to profitable, high-revenue customers, neighborhoods, and
regions to the detriment of those that are less commercially viable. This is
the result of the tendency to see profitability and return on investment as
drivers of private investment.
In addition to the purely economic decisions involved, private investment also depends heavily on the regulatory climate. The government’s
challenge is to put in place the necessary policy measures and regulatory
framework to allow and encourage the deployment and financing of broadband networks as widely as possible and thus ensure not only that highvalue users receive high-quality services, but also that the benefits of
broadband are spread throughout all populations and areas.
The Organisation for Economic Co-operation and Development (OECD),
based on a survey of broadband policies in member states, identified particular policy initiatives that may promote broadband investments, including
policies to undertake the following:
• Improve access to passive infrastructure (conduit, poles, and ducts) and
coordinate civil works as an efective means to encourage investment
• Ensure access to rights-of-way in a fair and nondiscriminatory manner
• Encourage and promote the installation of open access to passive infrastructure when public works are undertaken
• Allow municipalities or utilities to enter telecommunications markets;
where market distortion is a concern, policy makers could limit municipal participation to basic investments (such as the provision of dark fiber
networks under open-access rules)
• Provide greater access to spectrum (which is a significant market barrier
to wireless broadband provision) and adopt more market mechanisms to
promote more eicient spectrum use.
Many countries have used these policies to spur the build-out of broadband networks. In Korea, for example, thanks to greater market liberalization over the past decade, several new service providers entered the
telecommunications market and began to fund and deploy fiber-based networks. Many advanced broadband networks are now available, and the
country has an impressive number of users.
In Africa, wireless broadband licenses have been granted by governments since 2004, allowing mobile operators to roll out networks capable of
supporting high-speed data. Although uptake was initially slow, several factors have led to a growing number of African operators, boosting investments for 3G or 4G, including (a) more afordable international and backhaul
capacity, (b) increasing competition in the mobile sector, (c) greater demand
for more advanced services (for example, through the launch of e-health
Policy Approaches to Promoting Broadband Development
65
and e-education projects relying on mobile as well as other technologies),
(d) slower growth in voice subscribers and revenues, and (e) the lack of
wireline networks on the continent.8
In some cases, private investors may also look to multilateral investment
banks to assist in financing, particularly where investment proposals are
perceived by potential investors as higher-risk transactions or where diicult liquidity conditions and uncertain economic prospects are seen as additional risk factors. Such conditions decrease the possibility of private
financing and raise the costs of financing. In such cases, investment banks
have become involved in broadband projects. The European Investment
Bank, for example, is already lending an average of €2 billion each year to
support broadband projects; it also develops and finances pilot projects and
innovative funding schemes.
Fiscal Support to Facilitate Broadband
In some cases, regulatory reform and private sector investment still will not
permit a government to reach its broadband development goals. In those
cases, policy makers may turn to fiscal support to fill broadband development gaps. Fiscal support can be directed to a company or end users and can
be provided in various forms, including cash subsidies, in-kind grants, tax
incentives, capital contributions, risk assumption, or other fiscal resources
(Irwin 2003).
Economic Justification of Fiscal Support
Fiscal resources are limited and face competing demands from many sectors. As a result, policy makers considering providing more direct support
for broadband development must carefully analyze the expected costs and
benefits of providing that support. First, a persuasive case must be made
that the benefits of supporting broadband development are likely to outweigh the cost to be incurred by all participating private and public sector
entities, as seen from the viewpoint of the economy as a whole. Fiscal support should not be provided for components of the broadband strategy that
will leave the economy worse of than without it. Second, if a component is
desirable for the economy overall, it is essential to determine how much fiscal support should be provided.
For example, the government of Australia committed in its 2008–09 budget to base its spending on infrastructure projects on rigorous cost-benefit
analysis to ensure the highest economic and social returns to the nation
over the long term. The national broadband network is an open-access
wholesale-only network that was expected at the time to be capable of
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delivering fiber-based coverage at 100 Mbit/s to 93 percent of all premises
and fixed wireless and satellite coverage at 12 Mbit/s to the rest. The total
construction and initial maintenance cost was estimated at $A 35.7 billion,
including $A 27.1 billion of equity contributed by the Australian government. A study in 2009 also estimated that the cost of the network would
exceed its benefits by between $A 14 billion to $A 20 billion (present value
in 2009). The study concluded that the investment should not be undertaken if the total cost would exceed $A 17 billion, even accounting for rising
demand for broadband-enabled services and the negative outcome that the
typical end user would not have access to more than 20 Mbit/s (Ergas and
Robinson 2009).
Fiscal support often involves the direct use of government money. Subsidizing investment requires cash outlays up-front that will never be recovered. Subsidizing use involves payments during a long time, possibly for the
lifetime of the strategy. Investing equity in public-private partnerships
(PPPs) involves cash contributions up-front that may be recovered in the
long run (for example, as dividends) to the extent that the ventures are commercially successful. Long-term debt financing comprises cash outlays that
may be recovered over the years, provided the beneficiaries do not default
on repayment obligations.
Fiscal support that does not involve direct use of government money
also has a cost. Giving investors free use of spectrum for last-mile access
has an opportunity cost related to the revenues that the government could
obtain from the sale of spectrum licenses for profitable business use.
Preferential taxation (for example, income tax holidays, custom duty
exemptions) implies fiscal revenues forgone. On-lending international
development loans and credits reduce the funding available from these
sources for other initiatives in the same country.9 Regulatory risk (for example, changes in the pricing rules) can be mitigated through government
guarantees, which create contingent liabilities. The government can pick
up part of the commercial risk of uncertain market outlook for new investments by committing to future purchases, which may result in obligations
unrelated to actual need.
Estimating costs and benefits. In order to determine whether to move ahead
with some form of fiscal support for broadband development, the costs and
benefits must be determined. Economic costs and benefits of a component
of the broadband strategy are valued to reflect real scarcities of goods and
services. Financial analysis values costs and benefits at market prices. Both
economic and financial analyses compare the situations with and without
the component. Sunk costs are not taken into account.
Policy Approaches to Promoting Broadband Development
67
The principles for estimating economic and financial costs and benefits
are well known, but applying these principles in practice is subject to
assumptions about market and technology development. This can be a challenge, especially when some players (for example, incumbent operators)
have more detailed information and analytical capabilities than others (for
example, government authorities, new entrants). To some extent, this limitation can be overcome by using the calculus of costs and benefits to provide
guidance on fiscal support, but relying primarily on market mechanisms
(for example, minimum subsidy auctions) to reach the final decisions on
support awards.
When costs and benefits can be measured in monetary terms, economic costs and benefits can be derived from financial costs and benefits.
Transfers from one part of the economy to another, such as sales taxes or
customs duties, are excluded from the cost stream. Prices that are distorted by market interventions, such as unskilled labor, foreign exchange,
capital, and the radio spectrum, are adjusted to reflect their real scarcity
in the economy. External costs (for example, business losses resulting
from digging up streets to install fiber) should be quantified, to the greatest extent possible.
Benefits can be harder to calculate. Starting from the financial analysis of
network and service providers, economic benefits can be estimated by adding consumer and producer surpluses to the revenue streams. For example,
U.S. consumers have been increasingly willing to spend more money for
fixed broadband connectivity than they are actually paying. This resulted in
a consumer surplus of about US$32 billion in 2008, up 58 percent from
about US$20 billion in 2005. Higher speed is expected to add a further
US$6 billion for existing customers. The study underestimated the wider
economic impact of broadband, as it excluded business users and wireless
access (Dutz, Orzag, and Willig 2009).
Comparing costs and benefits. The net present value (NPV) of the expected
benefits is the discounted monetary value of benefits minus costs over time.
For the government, which values costs and benefits to reflect real scarcities
in the economy, an economic NPV > 0 means the project would have a positive efect on the country’s welfare. For a private company, which values
costs and benefits at market prices, NPV > 0 means the project could be
commercially viable. This analysis can be applied to the broadband strategy
as a whole as well as to each major separable component.
Projects that have negative economic NPV should not be supported.
Projects that have positive financial NPV do not need support. Components that have positive economic NPV but negative financial NPV would
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Broadband Strategies Handbook
be good for the economy, but are unlikely to be undertaken as a business.
Fiscal support of these components would be justified, up to a maximum
support equal to the absolute value of the (negative) financial NPV. This is
the amount of support that would make the component just viable commercially. Support above this level would not be justified.
Types of Fiscal Support
Private investment. Where government does decide to provide some type of
fiscal support, the re-creation of monopolies with public support is a fundamental concern to many governments around the world, as is avoiding contributing to established carriers’ dominance and displacing private investment. The European Union (EU) supports the construction of broadband
infrastructure and Internet take-up through both rural development and
structural funds and has clarified the application of state aid rules on the use
of public funds for broadband deployment.
The 2009 European Commission’s Community Guidelines for the Application of State Aid Rules in Relation to Rapid Deployment of Broadband
Network were drafted specifically to address concerns relating to public
support, and they contain safeguards to ensure that any broadband infrastructure funded with public money does not favor existing operators,
including provisions that a company receiving public money must provide
efective open access to its competitors to allow them to compete in an
equal, nondiscriminatory way (European Commission 2009). Although the
state aid guidelines focus on the role of public authorities in fostering the
deployment of such networks in unprofitable areas (that is, areas where private operators do not have the commercial incentives to invest), they clearly
note that state aid should not replace or “crowd out” private investment.
Instead, public funds should complement private operators’ investments
and thereby achieve higher and faster broadband coverage. Box 2.4 provides an overview of the EU experience with the state aid guidelines.
In the United Kingdom, for example, the government set a goal in 2009
of ensuring 100 percent access to next-generation broadband and planned
to support the rollout of fiber-based broadband and other next-generation
technologies via a tax on telephone lines (United Kingdom, Department for
Business Innovation and Skills 2009). Since then, BT (formerly British Telecom) has started to roll out fiber broadband to most of the United Kingdom
by 2015. However, BT has made clear that without some form of public sector support it will not provide fiber coverage beyond around two-thirds of
households. It noted that such support could come from national funding or
regional funding combined with local partnerships to deploy networks in
specific areas (Lomas 2010). Within this context, BT has announced plans
Policy Approaches to Promoting Broadband Development
69
Box 2.4: Experience in the European Union with State Aid
for Financing Broadband
In the context of market reform, good practice in financing universal access projects
using public financing other than funds in
international jurisdictions includes the practice of setting out rules or guidelines on the
provision of public funding for universal service and access. The EU state aid guidelines
for funding broadband assist in bringing universal access and service through the presence of clear rules that do the following:
• Facilitate next-generation access (NGA)
and broadband investments from public
funds in order to bring broadband connectivity to underserved areas
• Enable the rapid deployment of broadband and especially NGA networks,
thus avoiding the creation of a new digital divide
• Due to the conditions laid down for the
granting of state aid (such as open access,
open tenders), allow the maintenance of
competition, thus helping to ensure better
and more broadband services.
Historically, funding decisions could be
made on a case-by-case basis in the EU.
However, in light of the significant level of
investments, stakeholders require a level of
certainty—hence the need for the guidelines.
Source: Box taken from European Commission and ITU 2011.
to roll out superfast fiber broadband to unprofitable areas with the help of
European funding. The European Regional Development Fund’s Convergence Program is investing £53.5 million, or just over 40 percent of the total
funding, with BT providing £78.5 million (France 2011).
Direct government intervention. Market-based investments should be the
mainstay for broadband deployment, but some degree of direct government funding may be required to enable and complement the market, particularly in areas that are not considered economically viable by private
operators. The form of this more direct intervention will vary from country to country. In many countries, subsidies are used to underpin private
sector investment.
Some governments have efectively used subsidies and other financial
incentives to spur broadband deployment. Canada, Germany, Greece, Korea,
Malaysia, Portugal, Singapore, the United Kingdom, and the United States
have all announced plans to undertake and are implementing substantial
direct government funding for network infrastructure development. In
some countries (for example, Canada, Finland, Germany, Portugal, the
United Kingdom, and the United States), measures to expand broadband
access and to bolster connection speeds have been included in the country’s
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Broadband Strategies Handbook
planned economic stimulus packages. Most of these plans seek to speed up
existing links to build faster wireline and wireless next-generation networks. Countries are spending public funding for rolling out high-speed
networks to areas that are underserved or unserved by commercial ISPs. In
other countries, however, the debate over public financing is not over how
much to contribute to broadband eforts, but rather how to cut budgets in
line with the economic realities of 2011. In such a context, funding for
broadband may assume lesser importance compared to other, more important, social and economic goals. Consequently, the focus on finding private
sector–led solutions is likely to increase.
A few governments are pushing the build-out of broadband networks
through direct investment by a government-backed company specifically
tasked with building new networks. In most, if not all, cases, these government-led eforts will deliver only wholesale services that service providers
can then use to ofer retail services. In April 2009, for example, Australian
Prime Minister Kevin Rudd announced that the government would commit $A 43 billion (US$30 billion) to building a national broadband network across Australia, with wireline services reaching 93 percent of the
population and wireless or satellite broadband networks serving the
other 7 percent. In March 2011, Qatar announced a similar plan to build a
fiber to the home network to reach 95 percent of the population by 2015,
with a government-backed company focusing on supplying the passive
infrastructure for the network.10 In 2007, the Rwandan government
awarded a US$7.7 million contract to Korea Telecom to construct a wireless broadband network that was the first of its kind in Africa (Malakata
2009). By 2012, the government plans to make broadband Internet access
available to more than 4 million Rwandans through the new wireless network and the Kigali Metropolitan Network project.
Public-private partnership models. Apart from implementing policies and
regulations to ensure competition (between networks or services), the public sector can promote broadband development by sharing financial, technical, or operational risks with the private sector. Indeed, experience has
shown that, in some cases, private sector–only development, or direct government or subsidy funding, may not be suicient to reach the most remote
areas, provide the most bandwidth-intensive services, or provide ongoing
public funding, even with “smart subsidies.”11 Within this context, many
countries are now adopting approaches that combine public and private
sector skills and resources, as well as combining public financing with some
form of matching funding from private investors. This approach helps to
reduce investment risk, while also recognizing that market participation is
Policy Approaches to Promoting Broadband Development
71
essential to the financial sustainability of projects. PPPs are also increasingly being considered as a solution for ICT development, including for
broadband backbones and the supply of transmission bandwidth suicient
to catalyze advanced broadband applications.
In Africa, for example, much attention has been given in recent years to
the funding and financing of projects aimed at bringing more afordable
broadband connectivity to the continent by means of submarine cables,
regional fiber optic backbones, and satellites. Such projects have generally
been financed through a mixture of public and private sector funding. In
2010, for example, Alcatel-Lucent was selected by Africa Coast to Europe
(ACE), a consortium of 20 operators and governments, to build a submarine cable network that will link 23 African countries to Europe.12 The system will be over 17,000 kilometers long and capable of transmitting data
between the African continent and Europe at initial speeds of 40 Gbit/s.
In Finland, the main objective of the December 2008 plan for 2009–15 is
to ensure that more than 99 percent of the population in permanent places
of residence, as well as businesses and public administration oices, are no
farther than 2 kilometers from a 100 Mbit/s fiber optic or cable network.
The government expects telecommunications operators to increase the
rate of coverage to 94 percent by 2015, depending on market conditions,
while public finances will be used to extend services to sparsely populated
areas where commercial projects may not be viable, bringing coverage to
the target of 99 percent. The plan stipulates that, where public financial
intervention is required, it should be in the form of public-private partnerships, with federal funding only being allocated to projects deemed not
viable for 100 percent private investment. The plan limits such interventions, providing that the federal subsidy amount cannot exceed one-third
of the total project cost, with additional EU and municipal support capped
at another one-third, thereby requiring private participants to invest at
least one-third of the cost.
Spain has relied greatly on inputs from the private sector through PPPs.
Of the public funds used, €31 million were structural funds and €53 million
were zero-interest public credits. Operators invested about €280 million.
The funded projects use asymmetric digital subscriber line (ADSL),
WiMAX, and satellite technologies depending on geography, rollout dates,
and available technologies. The government set the minimum download
speed at 256 kbit/s, and prices were capped at a “reasonable fee.”
Malaysia’s 2006 MyICMS Strategy also set out several goals for
broadband services as well as strategies to achieve them.13 The government is funding a fiber optic network under a public-private partnership
with Telekom Malaysia that is aimed at connecting about 2.2 million
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Broadband Strategies Handbook
urban households by 2012. Under the terms of the agreement, the government committed to investing RM 2.4 billion (US$700 million) in the
project over 10 years, with Telekom Malaysia committing to covering the
remaining costs.
Local eforts, bottom-up networks. There are also some interesting examples of how local eforts or bottom-up networks have resulted in the
financing of broadband deployment. Module 4, Universal Access and Service, of the infoDev ICT Regulation Toolkit, for example, notes that the
emergence of municipal broadband networks provides an additional
source of financing from local governments for ICT service development.14 The toolkit highlights the Pirai municipal network in Brazil as a
successful initiative that was based on the needs of the municipal authority and included e-government, education, and public access, with a range
of application support and development activities. The project established
numerous broadband access nodes that allowed all local government
oices and most public schools, libraries, and general public access points
to be connected. Initially, all financing was provided by the municipal government. A commercial enterprise was later established, but continues to
be funded and supported by the municipality.
Local governments have also been instrumental in driving broadband
deployments (box 2.5). A 2010 study notes that in some European countries
(for example, the Netherlands and Italy) municipal involvement is the result
of incumbent carriers’ reluctance to deploy networks in areas with less
chance of investment return, increasing demand for broadband services,
and a perception that broadband networks may serve to reduce the digital
divide and stimulate economic growth (Nucciarelli, Sadowski, and Achard
2010). This, the study claims, has led some European municipalities to
become more directly involved in broadband network development.
Universal service funds for broadband. In the past, many countries defined
their universal service funds (USFs) in a way that gave priority to providing
voice telephony (traditionally provided over wireline) services to unserved
or underserved regions. Recently, however, some countries have revised
their definitions and the scope of the funds to include broadband, mobile
telephony, or Internet access. For example, the EU and the United States are
adding resources to existing rural development funds or USFs to accommodate broadband. Some countries have turned or are considering turning
broadband provision into a universal service obligation and are reforming
their universal service policies. Other countries are contracting commercial providers to build the network with service obligations through a
Policy Approaches to Promoting Broadband Development
73
Box 2.5: Municipal Broadband Initiatives in Italy
and the Netherlands
In Italy, Terrecablate Siena, a publicly owned
carrier, participated in the Terrecablate consortium (Societá Terrecablate Reti e Servizi
S.r.l.), which was created in 2005 and
encompassed the Province of Siena, including 36 municipalities and three mountain
communities). The project is funded with
public money and aims at maximizing access
to connectivity within rural areas.
In the Netherlands, the Draadloos Groningen (Wireless Groningen) Foundation signed
an agreement in 2009 with Unwired Holding
to deploy and manage a citywide wireless
broadband network. The project began as an
“anchor tenant” model in which the four
founding members (the Municipality of Groningen, the Hanzehogeschool Groningen, the
University of Groningen, and the University
Medical Center) agreed to fund the network
in return for being able to use it for their own
communications and services. Each of the
initial members agreed to contribute €1 million
over four years, which is aimed at guaranteeing the initial financial stability of the network
in its start-up phase as well as demonstrating
the network’s ability to deliver a wide range of
services. The plan also calls for Draadloos
Groningen and Unwired Holding to sell access to the network to government agencies,
businesses, and consumers.
Sources: Nucciarelli, Sadowski, and Achard 2010; Vos 2009.
competitive bidding process (for example, France, Ireland, Japan, and
Singapore). Chapter 4 discusses these issues in more detail.
Comparing Alternative Instruments
Not all fiscal support instruments are equally efective. They difer primarily
in terms of accuracy and also regarding transparency, targeting, cost, and
sustainability.
Table 2.5 illustrates which instruments of fiscal support can help to
overcome each type of obstacle to broadband development ahead of or
beyond the market (that is, their efectiveness in addressing specific impediments to broadband development).15 For example, subsidizing investment
is particularly efective at reducing investors’ costs and also can help to
overcome financial market failures. Alternatively, subsidizing the use of
broadband is an efective way to increase revenues by making service
afordable to people who otherwise would not buy the service; however, it
can also enhance competition among firms in the provision of services and
reduce commercial risk by building up demand that otherwise would
materialize at some point in the future as incomes rise and costs decline.
The choice of instrument can be further narrowed down by considering
the transparency of the instrument’s cost and its ability to target specified
categories of beneficiaries efectively.
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Broadband Strategies Handbook
Policy Approaches to Promoting Broadband Development
Table 2.5
Effectiveness of Fiscal Support for Broadband Development
Objective
Reduce costs
Subsidy of
investment
Subsidy
use and
devices
✕
Rights-ofway,
spectrum
Preferential
Equity
taxation
investment
✕
Increase
revenues
✕
Facilitate
competition
✓
Long-term
loans
On-lending
international
loans
✕
✕
Partial risk
guarantees
✕
✓
Improve business
environment
Address financial
market failures
✓
✕
Reduce regulatory and political
risk
Reduce commercial risk
✓
✓
Source: Telecommunications Management Group, Inc., adapted from Irwin 2003.
Key: ✕ = instrument is very effective; ✓ = instrument has additional effects
✓
✕
75
Measurement, Monitoring, and Evaluation:
Checking Progress
Why Measure Performance?
Policy makers seeking to promote broadband development need mechanisms to ensure that their objectives are being achieved and to identify
whether corrections and refinements to policies and programs are needed.
In short, they need to measure progress through regular monitoring in
order to identify successes and failures. Diferent countries will adopt
broadband strategies with diferent objectives, which will afect the appropriate indicators to monitor. It is best to build the indicators most appropriate for the selected objectives into the design of the programs from the
beginning and to allocate the necessary resources for data collection and
analysis from the start. Broadband indicators are also needed for analysis,
for example, to examine trends and the link between broadband adoption
and social and economic development. They are also important for monitoring license compliance in areas such as coverage and quality. As a result,
the specific indicators appropriate for a particular country, the frequency of
data collection and reporting, the geographic unit of analysis, and so forth
will also difer from country to country. Consequently, the following section
provides a range of options rather than a single prescription for countries to
consider when looking at measurement issues.
What to Measure?
The broadband indicators likely to be of the most interest to policy makers
are availability, demand, quality, and pricing (figure 2.4). These indicators
relate to local retail access rather than to wholesale and backbone markets.16
Additional indicators also may be useful for monitoring and analysis, including monetary-based statistics such as broadband revenues. The Partnership
on Measuring ICTs for Development, a coalition of intergovernmental
agencies, has produced a methodological manual identifying core ICT statistics including several broadband indicators.17 This manual provides a
useful list of key broadband indicators based on definitions with international consensus.
Availability (Supply)
Availability refers to the ability to access wireline and wireless broadband
networks and services. Diferent modes of providing broadband exist; therefore, diferent indicators of availability are needed for each of the modes. In
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Broadband Strategies Handbook
Figure 2.4
Categories of Broadband Indicators
availability
demand
quality
pricing
coverage
household
speed
wireline
connections
business
latency
wireless
Source: Telecommunications Management Group, Inc.
the case of wireline systems, availability can be measured by the percentage
of households passed. This is a conventional measure in the cable industry
that can be extended to fiber and digital subscriber line (DSL) as well. The
indicator reflects the number of copper (telephone), coaxial (cable television), or fiber optic lines accessible by a premise, regardless of whether users
actually subscribe to the broadband service.18 It may also be useful to distinguish between the type of technology, such as DSL, cable modem, and fiber
to the premises (FTTP). This provides an idea of the relative importance of
each to broadband development as well as the degree of intermodal competition between technologies. It may also be useful to provide a breakdown of
subscriptions by speed ranges and geographic area. These considerations
are becoming increasingly important as countries seek to deploy minimumspeed broadband services to unserved and underserved populations.
In the case of wireless, the obvious indicator of availability is signal coverage. This can be measured in terms of population or area. The International Telecommunication Union (ITU) has developed a definition for
wireless broadband coverage in the form of 3G or 4G network coverage,
although the data are not reported for most countries. Parallel definitions
for fixed wireless, satellite, and wireline coverage do not exist within the
ITU definitions. However, several countries in the OECD report these data
using definitions developed either by national governments or by industry
organizations (OECD 2009). They may be adapted by countries wishing to
develop comprehensive coverage indicators.
Adoption (Demand)
While supply-side indicators give a general idea of high-speed Internet
availability, they do not reflect concrete adoption or usage. Measuring the
Policy Approaches to Promoting Broadband Development
77
uptake or adoption of wireline and wireless technologies, however, is significantly more diicult than measuring the supply. While coverage measures the theoretical ability to access broadband services, the number of
subscribed connections measures actual demand for the service. Subscriptions should be minimally broken down by wireline and wireless
broadband and preferably by additional categories to allow for deeper
analysis. A growing number of countries are measuring broadband access
by households and businesses through surveys typically carried out by the
national statistical oices. These demand-side surveys typically include
various indicators of use, which can illuminate factors contributing to
broadband take-up.
Determining the number of wireless broadband subscriptions presents
several methodological challenges. Although it is useful to distinguish
between diferent types and modes of wireless broadband delivery such as
mobile, fixed wireless, and satellite, the line between fixed and mobile
broadband is not always clear. For example, in some countries there is a
legal rather than a technical restraint on nationwide roaming for some
wireless broadband networks. Even with this restriction, users can move
with their mobile handset or data card within a limited area, so the distinction between fixed and mobile is not so clear. Another consideration is
that the use of wireless broadband on laptops via data cards is diferent
from the use via mobile handsets, and countries define wireless broadband diferently. Some countries only consider the former to be mobile
broadband and consequently include it in their overall broadband counts,
while smartphone broadband use can go uncounted, which could lead to
misleading results.
Conversely, another major issue is that users may have the theoretical
ability to access mobile broadband services if they have an appropriate
handset, regardless of whether they are using it or not. Counting this theoretical availability can significantly overstate the take-up of wireless broadband services in a country. Therefore, it is important to distinguish between
active and inactive data subscriptions. The OECD has defined active wireless subscriptions as access to the Internet in the previous three months or
the use of a separate data subscription (OECD 2010). However, even activity
is a blurred concept since some countries count access to any high-speed
service such as video chat, mobile television, and so forth, and users may not
be accessing the Internet.
Regulators in some countries publish broadband subscription data,
highlighting trends and making comparisons. The Turkish Information
Communications and Technology Authority, for example, contrasts the
availability of diferent broadband subscriptions in Turkey with that in
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Broadband Strategies Handbook
the EU and also provides a breakdown of speeds over ADSL, the most
prevalent wireline broadband technology in the country (figures 2.5
and 2.6).
There is no international indicator for the percentage of the population
that uses broadband, although some countries conduct surveys to determine the percentage of Internet users. This would be a useful supplementary indicator for monitoring and evaluating broadband markets.
Quality
In order to use or fully utilize certain applications, certain performance
parameters must be met by the broadband connection. Two of the most
important are latency (the amount of time it takes for a packet to travel
between sender and receiver) and speed, which can be monitored for both
Figure 2.5 Wireline Broadband (ADSL) Penetration in the European Union
and Turkey, by Technology, 2010
100
percentage of total wireline broadband subscriptions
93.5
90
80
79
70
60
50
40
30
20
15.3
10
3.9
2.2
2
0
DSL
cable
EU
fiber
3.7
0.5
others
Turkey
Source: ICTA 2010.
Note: Data for EU refer to January 2010.
Policy Approaches to Promoting Broadband Development
79
Figure 2.6
Wireline Broadband (ADSL) Penetration in Turkey, by Speed, 2010
> 8 Mbits/s
5%
512 kbits/s
and less
2%
1 Mbits/s
26%
8 Mbits/s
64%
2-4 Mbits/s
3%
Source: ICTA 2010.
fixed and wireless networks. Other broadband performance metrics
include signal quality, availability (“uptime”), complaint ratios, and service activation and restoration times. Technical means exist to measure
these aspects at various points in the link between the end user and the
server providing the application. Such information is important both to
policy makers, who can use it to ensure that the broadband networks and
services being supplied are up to industry standards, and to consumers,
who can use it to decide which service will provide them with the highest
quality. Many consumer complaints hinge on diferences between advertised and actual speeds.19
In Bahrain, for example, the Telecommunications Regulatory Authority
publishes quarterly reports measuring average download and upload speeds
and domain name system (DNS) and latency times (figure 2.7; see Bahrain,
Telecommunications Regulatory Authority 2011). In the absence of regular
monitoring, some regulators publish links on their websites to third-party
applications for measuring speed and other aspects of quality.20
Because diferences exist in performance inside the ISP domain (the
user and the server are within the ISP’s system), the national domain (the
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Broadband Strategies Handbook
Figure 2.7
Average Download Speed and Ping Time in Bahrain, January–March 2011
b. Ping time (milliseconds)
2.5
245
2.0
240
milliseconds
1.5
1.0
0.5
235
230
225
220
0.0
00
.0
02 0
.0
04 0
.0
06 0
.0
08 0
.0
10 0
.0
12 0
.0
14 0
.0
16 0
.0
18 0
.0
20 0
.0
22 0
.0
0
215
time of day
00
.0
02 0
.0
04 0
.0
06 0
.0
08 0
.0
10 0
.0
12 0
.0
14 0
.0
16 0
.0
18 0
.0
20 0
.0
22 0
.0
0
Mbit/s
a. Average download speed (Mbit/s)
milliseconds
industry average
advertised speed
Source: Bahrain, Telecommunications Regulatory Authority 2011.
Note: Ping time measures latency by taking the average time for the data to make the round trip to servers located in Bahrain,
Europe, and the United States.
user and the server are on diferent systems, but within the national territory), and the international domain (the user and server are in diferent
countries), measuring performance in each domain yields diagnostic
information useful for regulators, operators, and consumers. For example,
the Info-communications Development Authority of Singapore establishes diferent latency parameters depending on whether Internet traic
is national or international (IDA 2011).
Pricing
A government that launches a broadband initiative using public resources
will want the service to be afordable to the intended beneficiaries. One
could argue that prices need not be monitored in the case of purely private
supply, where no public resources have been expended. However, when
broadband is seen as an essential public utility or where prices are high due
to market failure, governments may want to monitor pricing. Concerns
about this issue have prompted countries such as India and the United
States to include “afordable” broadband access as a key factor or goal in
their broadband initiatives (United States, FCC n.d., 10; TRAI 2010).
Policy Approaches to Promoting Broadband Development
81
Competitive broadband markets typically have multiple tarifs with
varying levels of bandwidth, data download caps, and discounts. This presents methodological challenges in terms of compiling comparative broadband tarif indicators across technologies. Baskets of monthly services are
often used as a common measure of price trends that factor in caps and
speeds. The key components include the monthly price of broadband service, the corresponding speed, and, if applicable, the cap and prices for
exceeding the cap. Capped versus unlimited packages pose comparison
problems, but can be mitigated somewhat by comparing price per advertised Mbit/s.
An example comparing wireline and mobile broadband monthly prices
for selected economies is shown in table 2.6. The example illustrates the
various ways of looking at broadband pricing and highlights comparability
issues. One notable aspect is the diference between entry-level prices,
speeds, and afordability (in terms of price as a percentage of per capita
income). For example, although an entry-level fixed broadband package in
Turkey costs almost twice as much as in Brazil, the Turkish tarif is a slightly
better value since the download speed is twice as fast as in Brazil. Similarly,
although the entry-level price for fixed broadband in Brazil is more than
twice that in Vietnam, it is much more afordable in Brazil than in Vietnam
(although the value of the Vietnamese package is 10 times more).
Mobile broadband pricing is a bit more diicult to compare, since some
operators do not guarantee advertised speeds. Instead, prices tend to vary
by the volume of data downloaded per month. Nevertheless, as table 2.6
shows, the price of mobile broadband is the same as or lower than the price
of wireline broadband (except in Brazil). It is important to note that mobile
broadband is more often capped than wireline and that real mobile broadband speeds are also lower in many cases.
How to Measure?
Broadband indicators afect many parties. Government agencies responsible for broadband policy should consult internationally comparable
indicators and identify those most suitable for monitoring and evaluation.
Best practice suggests that national regulatory agencies should compile
broadband statistics, such as number of subscriptions, solicited from operators. This arises out of their mandate to regulate and monitor the sector.
Ideally, policy makers consult and cooperate with national statistical
agencies that have the technical skills to produce demand-side statistics
through household and enterprise surveys, asking about broadband possession or use of diferent ICTs by households and businesses (or by
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Broadband Strategies Handbook
Table 2.6 Monthly Prices for Wireline and Mobile Broadband in Selected Countries, 2011
Indicator
Brazil
Fixed broadband
basket, unlimited
(US$)
16.99
39.36c
Speed (Mbit/s)
0.512
US$ per Mbit/s
33
% GDP per capita
Mobile broadband
basket, 1 GB, (US$)
Speed (Mbit/s)
Kenya
Sri Lanka
Turkey
11.86
14.18
30.10
7.93
0.256
1.000
0.512
1.000
2.56
154
12
28
30
3
1.9
28.4
4.4
7.0
3.5
8.1
51.27
26.24
11.86
4.34
19.93
6.34
1.0
7.2
1.8
7.2
7.2
3.6a
a
Morocco
b
a
b
b
Vietnam
US$ per Mbit/s
51
3.7
7
1
2.8
2
% GDP per capita
5.7
18.9
4.4
2.1
2.3
6.5
Annual average
exchange rate, 2010
(LCU per US$1)
1.7536
76.1926
8.3507
112.7960
1.5054
18,919.1000
GDP per capita (US$)
10,816
1,662
3,249
2,435
10,399
1,174
Fixed-broadband
basket, 1 GB (LCU)
29.8
2,9990
99.00
1,600.00
45.31
150,000.00
Mobile broadband
basket, 1 GB, (LCU)
89.9
1,999.0
99.0
490.0
30.0
120,000.0
Sources: Adapted from Telefonica, VIVO (Brazil); Orange, Safricom (Kenya); Maroc Telecom (Morocco); SLT, Dialog (Sri Lanka);
TTNET, Turkcell (Turkey); VNN, MobiFone (Vietnam).
Note: GB = gigabyte; LCU = local currency unit.
a. Advertised download speed.
b. Theoretical download speed.
c. Includes 30 minutes of on-net calls. For fixed broadband, least expensive uncapped plan providing download speed of at least
256 kilobits per second (kbp/s). For mobile broadband, least expensive plan offering 1 GB per month of download and download
speed of at least 256 kbit/s.
individuals). Broadband operators play a key role, both as providers and as
consumers of the data.
The entities best positioned to provide supply-side data are the suppliers
of the relevant services. It is common for provisions mandating the reporting of data to the government or the regulatory agency to be included in
statutes governing the industry or in licenses or concession contracts. Irrespective of legal provisions, the principal challenge will be to ensure regular
and timely reporting of the required indicators based on adherence to
agreed-upon standard definitions and procedures.
Policy Approaches to Promoting Broadband Development
83
Table 2.7 Sources of Official Broadband Statistics
Source
Site
Note
Link
ITU
ICT Data and
Statistics Division
Worldwide scope; fixed and
mobile broadband subscriptions; fixed broadband tariffs
http://www.itu.int/ITU-D/ict/
statistics/
EUROSTAT
Information Society
EU members and sometimes
other countries; household
and enterprise broadband
penetration
http://epp.eurostat.ec.europa
.eu/portal/page/portal/
information_society/
introduction
OECD
Broadband Portal
OECD member data, including
broadband indicators covering
penetration, usage, coverage
prices, services, and speeds
http://www.oecd.org/document/
54/0,3746,en_2649_33703
_38690102_1_1_1_1,00.html
Source: Telecommunications Management Group, Inc.
Most governments do not monitor their country’s broadband development in a vacuum. They typically need data from other countries to put
their nation’s high-speed market evolution in perspective and benchmark it
with that of other countries. Brazil, for instance, compared its broadband
penetration and forecast evolution to those of Argentina, Chile, China, Mexico, and Turkey.
Several international sources harmonize and disseminate statistics for
diferent countries. The ITU has been the traditional repository of supplyside data on telecommunications and now on ICTs, including some
demand-side data. Similarly, the OECD collects and disseminates a number of broadband indicators for its member countries, as does EUROSTAT,
the statistical arm of the EU. All of these organizations make the data
available on dedicated websites (table 2.7). The Economic Commission for
Latin America and the Caribbean recently launched a broadband indicator site for its members.21 In addition, several private sector entities publish broadband statistics on mobile broadband subscriptions as well as
average download speeds and other quality metrics.22
Notes
1. In a technical sense, public goods are nonrivalrous (that is, one person’s use
does not diminish another person’s ability to use it) and nonexcludable (people
cannot be stopped from using it). Examples include free over-the-air radio and
television and national defense. However, some argue that broadband is not a
pure public good, as broadband access is excludable, as demonstrated by the
unevenness of broadband deployment, even within the same country. Some
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Broadband Strategies Handbook
2.
3.
4.
5.
6.
7.
8.
9.
10.
11.
12.
may also argue that broadband is not a public good since it is also rivalrous—
one person’s use can diminish another’s use if the network is congested. See
Atkinson (2010).
Brazil, Núcleo de Informação e Coordenação (2009, 14). The total percentage
of respondents is more than 100 because some respondents provided more
than one reason for nonadoption. The total percentage of respondents is less
than 100 because, for purposes of comparison, not all factors addressed in the
study are included in this figure (U.S. FCC 2009, 30).
The experiences of the countries surveyed in Kim, Kelly, and Raja (2010), for
example, may provide good approaches that could be adapted for use in many
countries.
Oman in 2009 short-listed firms competing to become the sultanate’s first
universal service provider.
“Kenya Data Networks Cuts Internet Rates by 90 Percent,” telecompaper,
August 5, 2009, http://www.telecompaper.com/news/kenya-data-networkscuts-internet-rates-by-90-percent.
For SIDSs, obtaining submarine cable connectivity has been a mixture of
geography, history, and luck. Investment in a submarine cable depends on
traic, which is itself a function of the number of people and the intensity of
use. SIDSs have very small populations and modest levels of teledensity and
Internet usage, making it challenging to obtain submarine cable connectivity.
See Sutherland (2009, 8).
See, for example, TeleGeography, “Telia and Telenor Share Danish Networks,”
June 11, 2011, http://www.telegeography.com/products/commsupdate/articles/
2011/06/14/telia-and-telenor-share-danish-networks/; TeleGeography,
“Safaricom and Telkom Poised to Ink Tower Sharing Deal,” June 14, 2011,
http://www.telegeography.com/products/commsupdate/articles/2011/06/14/
safaricom-and-telkom-poised-to-ink-tower-sharing-deal/.
“Connecting Africa: Continent-Wide Mobile Broadband Rollout Intensifies,”
Oxford Analytica, July 2010, http://www.forbes.com/2010/07/28/africamobile-broadband-business-oxford-analytica.html.
International development organizations, such as the World Bank and regional
development banks, typically have an overall funding envelope for a particular
country at a given time, which involves trade-ofs among competing eligible
initiatives.
“Qatar’s Government Establishes Q.NBN to Accelerate Rollout of Nationwide
Broadband Fiber to the Home (FTTH) Network,” Zawya, March 27, 2011,
https://www.zawya.com/Story.cfm/sidZAWYA20110327102507/Q.NBN%20
To%20Build%20Qatar%20National%20Broadband%20Network.
infoDev and ITU, “ICT Regulation Toolkit, Module 4: Universal Access and
Service,” sec. 5.4.1, Public-Private Partnerships, http://www.ictregulation
toolkit.org/en/Section.3288.html.
The consortium is headed by France Telecom-Orange and includes Baharicom
Development Company, Benin Telecoms, Cable Consortium of Liberia, Orange
Cameroun, Companhia Santomense de Telecomunicações, Côte d’Ivoire
Telecom Expresso Telecom Group, Gambia Telecommunications Company,
Policy Approaches to Promoting Broadband Development
85
13.
14.
15.
16.
International Mauritania Telecom, Oice Congolais des Postes et Telecommunication, Orange Guinea, Orange Mali, Orange Niger, PT Comunicações,
Equatorial Guinea, Gabon, Sierra Leone Cable, Société des Télécommunications de Guinée, and Sonatel; see “20 Operators Team with Alcatel-Lucent to
Bring Fast, Lower-Cost Broadband Connectivity in Africa with a New 17,000
Km Submarine System,” PR Newswire, June 2010, http://www.prnewswire.
com/news-releases/20-operators-team-with-alcatel-lucent-to-bring-fastlower-cost-broadband-connectivity-in-africa-with-a-new-17000-kmsubmarine-system-95852004.html.
See the MCMC website, “MyICMS,” http://www.skmm.gov.my/index
.php?c=public&v=art_view&art_id=62.
InfoDev and ITU, “ICT Regulation Toolkit, Module 4: Universal Access and
Service,” http://www.ictregulationtoolkit.org/en/Section.3126.html.
Some instruments can actually compound the obstacles. For example, granting
tax holidays or custom duty exemptions weakens the business climate by
discriminating among economic activities and increasing the cost of tax
administration and compliance.
Although the deployment of national backbones is an important goal of some
broadband plans, the indicators to measure developments in these areas have
not been identified or defined by the international statistical community, and
the data are not widely available. Nevertheless, perusal of plans from some
countries can help to identify relevant indicators. For example, India’s proposed broadband plan calls for the construction of a national fiber optic
backbone throughout the country. Deployment might be measured by indicators such as the number of localities served by the national fiber optic backbone
and kilometers of fiber backbone in the network. See TeleGeography, “India’s
National Broadband Policy to Be Sent for Cabinet Approval Shortly,” March 31,
2011, http://www.telegeography.com/products/commsupdate/articles/
2011/03/31/indias-national-broadband-policy-to-be-sent-for-cabinetapproval-shortly/.
17. The Partnership on Measuring ICTs for Development aims to develop further
initiatives regarding the availability and measurement of ICT indicators at the
regional and international levels. It provides an open framework for developing
a coherent and structured approach to advancing the development of ICT
indicators globally, particularly in developing countries. Partners include
EUROSTAT, ITU, the OECD, United Nations Conference on Trade and
Development, United Nations Educational, Scientific, and Cultural Organization’s Institute for Statistics, the United Nations regional commissions
(Economic Commission for Latin America and the Caribbean, Economic and
Social Commission for Western Asia, Economic and Social Commission for
Asia and the Pacific, and Economic Commission for Africa), United Nations
Department of Economic and Social Afairs, and the World Bank. See http://
www.itu.int/ITU-D/ict/partnership/index.html. See also UNCTAD (2010).
In addition, the ITU has identified and defined other broadband-related
statistics. See ITU (2010).
18. For more on issues related to measuring broadband coverage, see OECD
(2009).
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Broadband Strategies Handbook
19. “Average Broadband Speed Is Still Less Than Half Advertised Speed,” Ofcom,
March 2, 2011, http://media.ofcom.org.uk/2011/03/02/average-broadbandspeed-is-still-less-than-half-advertised-speed/.
20. For example, the Federal Communications Commission in the United States
has a broadband webpage, where consumers can test their speed, latency, and
jitter. See http://www.broadband.gov/qualitytest/about/.
21. ECLAC, “ECLAC Launched Regional Broadband Observatory,” Press Release,
May 27, 2011.
22. GSM World, “Market Data and Analysis,” http://www.gsmworld.com/
newsroom/market-data/market_data_and_analysis.htm. Ookla’s Net Index
provides average download speeds for 170 economies; see http://www.
netindex.com/download/allcountries/. Akamai compiles performance data for
a number of economies. Also see Akamai’s network performance comparison,
http://www.akamai.com/html/technology/dataviz2.html.
References
Atkinson, Robert. 2010. “Network Policy and Economic.” Paper presented at the
Information Technology and Innovation Foundation’s “Telecommunications
Policy Research Conference,” Washington, DC, October. http://www.itif.org/
files/2010-network-policy.pdf.
Bahrain, Telecommunications Regulatory Authority. 2011. “TRA Bahrain
Broadband Analysis Report 01 Feb 2011–31 Mar 2011.” Telecommunications
Regulatory Authority, Manama, April 3. http://www.tra.org.bh/en/
marketQuality.asp.
Brazil, Núcleo de Informação e Coordenação. 2009. Análise dos resultados da TIC
domicílios. Saõ Paulo: Núcleo de Informação e Coordenação.
CCK (Communications Commission of Kenya). 2011. Quarterly Sector Statistics
Report: 1st Quarter July–Sept 2010/2011. Nairobi: CCK.
Dutz, Mark, Jonathan Orzag, and Robert Willig. 2009. “The Substantial Consumer
Benefits of Broadband Connectivity for U.S. Households.” Internet Innovation
Alliance, Washington, DC. http://internetinnovation.org.
Ergas, Henry, and Alex Robinson. 2009. “The Social Losses from Ineicient
Infrastructure Projects: Recent Australian Experience.” Paper presented at the
Productivity Commission Roundtable, “Strengthening Evidence-Based Policy in
the Australian Federation.” http://ssrn.com/abstract=1465226.
European Commission. 2009. “Communication from the Commission: Community
Guidelines for the Application of State Aid Rules in Relation to Rapid Deployment of Broadband Network.” European Commission, Brussels, September 30.
http://eur-lex.europa.eu/LexUriServ/LexUriServ.do?uri=OJ:C:2009:235:0007:
0025:EN:PDF.
European Commission and ITU (International Telecommunication Union). 2011.
“SADC Toolkit on Universal Access Funding and Universal Service Fund
Implementation.” European Commission, Brussels; ITU, Geneva. http://www.
itu.int/ITU-D/projects/ITU_EC_ACP/hipssa/events/2011/SA2.2.html.
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EUROSTAT (Statistical Oice of the European Communities). 2009. “Information
Society Statistics at Regional Level.” European Commission, Brussels, March.
http://epp.eurostat.ec.europa.eu/statistics_explained/index.php/Information_
society_statistics_at_regional_level#Publications.
France, Paul. 2011. “BT Brings Fibre to First Cornwall Homes.” cable, March 28.
http://www.cable.co.uk/news/bt-brings-fibre-broadband-to-first-cornwallhomes-800478200/.
Hernandez, Janet, Daniel Leza, and Kari Ballot-Lena. 2010. “ICT Regulation in the
Digital Economy.” GSR Discussion Paper, ITU, Telecommunications Management Group, Inc., Geneva. http://www.itu.int/ITU-D/treg/Events/Seminars/
GSR/GSR10/documents/GSR10-ppt2.pdf.
ICTA (Information and Communication Technology Agency of Sri Lanka). 2010.
Annual Report 2010. Colombo: ICTA.
IDA (Info-communications Development Authority of Singapore). 2009. “What Is
Next Gen NBN?” IDA, Mapletree Business City. http://www.ida.gov.sg/
Infrastructure/20090717105113.aspx.
———. 2011. “Quality of Service.” IDA, Mapletree Business City. http://www.ida.gov
.sg/Policies%20and%20Regulation/20060424141236.aspx.
Irwin, Timothy. 2003. “Public Money for Private Infrastructure.” Working Paper 10,
World Bank, Washington, DC.
ITU (International Telecommunication Union). 2003. Birth of Broadband.
Geneva: ITU.
———. 2010. “Definitions of World Telecommunication/ICT Indicators.” ITU,
Geneva. http://www.itu.int/ITU-D/ict/handbook.html.
Kim, Yongsoo, Tim Kelly, and Siddhartha Raja. 2010. “Building Broadband:
Strategies and Policies for the Developing World.” World Bank, Washington,
DC, June. http://www.infodev.org/en/Publication.1045.html.
Lomas, Natasha. 2010. “BT: Fibre Broadband Coming to Two-Thirds of UK by
2015.” silicon.com, May 13. http://www.silicon.com/technology/networks/2010/05/
13/bt-fibre-broadband-coming-to-two-thirds-of-uk-by-2015-39745802/.
Malakata, Michael. 2009. “Rwanda’s Mobile Broadband Is Africa’s First.”
Computerworld, December. http://news.idg.no/cw/art.cfm?id=D6F3D4221A64-67EA-E4FF70C29D8BDB9D.
Nucciarelli, Alberto, Bert M. Sadowski, and Paola O. Achard. 2010. “Emerging
Models of Public-Private Interplay for European Broadband Access: Evidence
from the Netherlands and Italy.” Telecommunications Policy 34 (9): 513–27.
OECD (Organisation for Economic Co-operation and Development). 2008.
Broadband Growth and Policies in OECD Countries. Paris: OECD.
http://www.oecd.org/document/1/0,3343,en_2649_34223_40931201_
1_1_1_1,00.html.
———. 2009. “Indicators of Broadband Coverage.” DSTI/ICCP/CISP(2009)3/FINAL,
OECD, Committee for Information, Computer, and Communication Policy,
December 10. http://www.oecd.org/dataoecd/41/39/44381795.pdf.
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———. 2010. “Wireless Broadband Indicator Methodology.” OECD Digital Economy
Paper 169, OECD, Paris. http://www.oecd-ilibrary.org/science-and-technology/
wireless-broadband-indicator-methodology_5kmh7b6sw2d4-en.
Pew Internet and American Life Project. 2010. “Home Broadband Survey.” Pew
Internet and American Life Project, Washington, DC. http://www.pewinternet
.org/Reports/2010/Home-Broadband-2010/Summary-of-Findings.aspx.
Qiang, Christine. 2009. Broadband Infrastructure Investment in Stimulus Packages:
Relevance for Developing Countries. Washington, DC: World Bank.
http://siteresources.worldbank.org/EXTINFORMATIONANDCOMMUNI
CATIONANDTECHNOLOGIES/Resources/282822-1208273252769/
Broadband_Investment_in_Stimulus_Packages.pdf .
Sutherland, Ewan. 2009. “Telecommunications in Small Island Developing States.”
Paper presented at the 37th “Research Conference on Communication,
Information, and Internet Policy,” George Mason University School of Law,
Arlington, VA.
Task Force on Financial Mechanisms for ICT for Development. 2004. A Review of
Trends and an Analysis of Gaps and Promising Practices. Geneva: ITU, December.
TRAI (Telecommunications Regulatory Authority of India). 2010. “Consultation
Paper on National Broadband.” TRAI, New Delhi.
United Kingdom, Department for Business Innovation and Skills. 2009. Digital
Britain: Final Report. London: Department for Business Innovation Skills.
http://webarchive.nationalarchives.gov.uk/+/http://www.culture.gov.uk/
images/publications/digitalbritain-finalreport-jun09.pdf.
UNCTAD (United Nations Conference on Trade and Development). 2010.
“Partnership on Measuring ICT for Development: Core ICT Indicators.”
UNCTAD, Geneva. http://new.unctad.org/upload/docs/ICT_CORE-2010.pdf.
United States, FCC (Federal Communications Commission). 2009. Broadband
Adoption and Use in America. Washington, DC: FCC.
———. n.d. National Broadband Plan: Connecting America. Washington, DC: FCC.
World Bank. 2009. “Advancing the Development of Backbone Networks in
Sub-Saharan Africa.” In Information and Communication for Development:
Extending Reach and Increasing Impact, ch. 4. Washington, DC: World Bank.
———. 2010. “Strategic Options for Broadband Development in the Arab Republic of
Egypt.” World Bank, Washington, DC.
Vos, Esme. 2009. “Groningen, Netherlands Deploys Municipal Wireless Network.”
MuniWireless, April 15. http://www.muniwireless.com/2009/04/15/groningendeploys-muni-wireless-network.
Policy Approaches to Promoting Broadband Development
89
CHAPTER 3
Law and Regulation
for a Broadband World
Throughout this handbook, we refer to the two primary components necessary to promote broadband development—one related to supply (the availability of and access to broadband networks, services, applications, and
devices) and the other related to demand (the adoption and use of broadband). As the world moves to a converged information and communication
technology (ICT) environment, countries are revisiting their traditional
legal and regulatory frameworks and crafting new laws and regulations to
address some of the supply and demand issues associated with developing
broadband networks and services.
On the supply side, certain key legal and regulatory issues are being considered, such as determining how legal and regulatory licensing frameworks
may facilitate voice, video, and data oferings. Other issues are related to
spectrum management reforms, Internet interconnection, and infrastructure access policies. On the demand side, legal and regulatory issues are also
arising. As more of our social, political, and economic transactions occur
online, it becomes critical to ensure user trust and confidence. Policy makers are therefore considering measures to ensure users’ privacy and rights
online.
At this time, the legal and regulatory responses to address many of these
issues are still being debated around the world. As broadband expands and
91
its full potential is realized, a clearer picture may emerge. This chapter discusses the key policies and regulatory approaches that are being considered
and implemented by policy makers and regulatory authorities to address
some of these issues.
Licensing and Authorization Frameworks
Technological convergence in the telecommunications and broadcasting
markets is hastened by the growth of broadband networks, since the higher
speeds and larger capacities of broadband create new opportunities for
operators to ofer an array of services, including voice, data, and video. For
example, two of the largest broadband network operators in the world,
Comcast and Time Warner, began as cable television (TV) operators, but
now derive substantial revenues from Internet and voice services, as well as
from pay TV, particularly through their “triple-play” packages (Raja 2010).
Broadband also supports the expansion of markets and competition as well
as helping to reduce prices, improve the eiciency of service provision, and
increase the variety of oferings for subscribers. To facilitate the supply of
emerging wireline and mobile broadband networks, an enabling licensing
framework is necessary.
Convergence and the distributed nature of networks and communications have unleashed a disruptive force across traditionally segregated
industries that demands new, flexible, enabling responses (Benkler 2006).
Traditional, service-specific regulatory frameworks have typically required
separate licenses for wireline, wireless, and broadcasting networks as well
as for diferent types of services. In many instances, operators have been
prohibited from ofering services outside their traditional, rigidly defined
industry—even though new digital broadband technologies make this easily
possible. For example, Internet Protocol television (IPTV) was restricted in
the Republic of Korea until the IPTV Business Act of 2008 permitted telecommunications operators to ofer television programs in real time over
their broadband networks.1 Within a year of enabling this converged technology and licensing three IPTV operators, Korea had more than 1 million
IPTV subscribers.2
As this and similar cases demonstrate, distinctions between types of network infrastructure are becoming increasingly impractical in a converged
environment. Thus policy makers and regulators in both the developed and
developing worlds are enacting reforms to transform legacy regulatory
regimes so that they can efectively address converged networks and services. These eforts generally have two key elements: (a) the introduction of
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Broadband Strategies Handbook
the principles of technology and service neutrality and (b) the establishment of greater flexibility in key aspects of licensing and authorization
frameworks, particularly the authorization of a wide range of networks and
services under a single license. At the same time, there is expected to be
greater reliance on broad competition law and regulation, as the historic
restrictions contained in licenses and authorizations are progressively
reduced.
Technology and Service Neutrality
Technology neutrality is based on the premise that service providers and
network operators should be allowed to use the technology that best meets
the needs of their network and the demands of their customers; such choices
should not be dictated by governments. In the licensing context, technology
neutrality means that diferent technologies capable of providing similar or
substitute services should be licensed and regulated in a similar way.3 In the
broadband context, this means that broadband service providers abide by
similar licensing processes and conditions regardless of whether they
deliver services via wireless, digital subscriber line (DSL), fiber, cable
modem, or other technology. However, a licensing framework that is generally considered technology neutral does not have to treat all providers in
exactly the same way; it may treat certain broadband technologies or services diferently. For example, the promotion of nascent services (for example, voice over Internet Protocol, or VoIP) using a light-handed regulatory
approach may warrant departure from technology neutrality, at least on a
temporary basis, to promote the development of those technologies. This
also may be the case for wireless vs. wireline broadband technologies due to
the need for separate spectrum authorizations and other spectrum-related
matters, such as capacity constraints and interference.
Service neutrality is based on the similar premise that network operators
should be allowed to provide whatever services their technology and infrastructure can deliver. In the past, due to the limitations of technology, networks were “purpose built.” As information and communications became
increasingly digitized, however, it became possible for diferent networks to
support similar or substitute services. Thus, both cable and telecommunications networks can now support a wide range of voice, data, and video services. More relevant for developing countries, mobile service providers are
increasingly able to ofer such services as well. Given this convergence, constraining network operators’ services based on old conceptions of technology is no longer appropriate. Adoption of more liberal licensing regimes
allows companies to provide a wide range of services under a single license
Law and Regulation for a Broadband World
93
or authorization, which thereby enables the operator to take “cues from the
market as to which services are most in demand or most cost-efective”
(ITU 2004).
For example, Botswana, Ghana, Kenya, South Africa, Tanzania, and
Uganda have already implemented technology- and service-neutral licensing frameworks. In Tanzania, the Electronic and Postal Communications
Act, 2010, specifically incorporates both principles into the converged
licensing framework, providing that “a licensee is authorized to provide any
electronic communication service” (that is, service neutrality) and allowing
the licensee to “use any technology for the provision of electronic communication services” (that is, technology neutrality).4
Together, technology and service neutrality recognize and facilitate technological convergence and promote new and innovative services and applications by reducing the number of licenses that an operator must obtain and
expanding the variety and breadth of services an operator may provide.
Neutrality may also contribute to reducing unnecessary or even contradictory regulatory obligations, such as diferent reporting standards and
requirements provided under service-specific regimes. However, a country’s licensing regime often requires substantial reforms from traditional
service-specific licensing to a more unified licensing framework capable of
accommodating technology and service neutrality.
New Authorization Options and Their Implications
for Broadband
In light of the regulatory implications that flow from convergence and the
transition to a next-generation network (NGN) environment, regulators
have begun to adopt more unified frameworks based generally on one of the
following approaches: (a) unified or general authorization or (b) multiservice authorization (ITU-D 2009a). Establishing some form of converged
licensing framework that includes technology and service neutrality can be
a key step for developing countries to foster the supply of broadband,
increase investment, and improve the uptake of broadband.
Unified or General Authorizations
In principle, these authorizations are technology and service neutral, allowing licensees to provide all forms of services under the umbrella of a single
authorization and permitting them to use any type of communications
infrastructure and technology capable of delivering the desired service
(figure 3.1). This is the most flexible approach, and it typically permits any
number of operators to be authorized, except where scarce resources, such
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Broadband Strategies Handbook
Figure 3.1 General Elements of a Unified and General Authorization
Framework
Permit the provision any type
of network or service
Encompass technology and
service-neutrality principles
Unified or general
authorizations
Typically no limit to the number
of authorized providers
May only require notification or
registration rather than license
application process
Source: Telecommunications Management Group, Inc.
as spectrum, are involved. In addition, this type of framework may only
require registration or notification in order for the operator to begin ofering services. The general authorization regime established by the European
Union (EU) Authorization Directive in 2002, as amended in 2009, characterizes this type of framework (European Union 2002). Under that regime,
a provider may ofer any type of electronic communications network or service with a simple notification to the relevant national regulator. No license
application or approval process is generally required.
Multiservice Authorizations
A multiservice licensing framework allows operators to ofer a wide range
of services under a single authorization and may also permit certain categories of licensees to use any type of communications infrastructure and technology capable of delivering the licensed services. However, the multiservice
authorization framework is generally not as flexible or as streamlined as a
general authorization approach: (a) there are multiple license categories
rather than a single license category; (b) the various license categories may
limit the number and types of services that may be provided; (c) licensees
may be required to hold multiple licenses; and (d) rules may bar licensees
from holding more than one type of license, which may stifle convergence if,
for example, a telecommunications licensee is not permitted to hold a
broadcasting license and therefore cannot ofer video services.
Singapore has adopted a simplified variation of the multiservice licensing framework, which is based on two main types of licenses: facilitiesbased operator (FBO) and services-based operator (SBO) (IDA 2011a, 2011b;
figure 3.2).
Law and Regulation for a Broadband World
95
Figure 3.2
Example of Multiservice Licensing Framework in Singapore
Facilities-based operator license
Full technology and service neutrality
Permits the provision of any type of network or service
Services-based operator license
Permits provision of a wide range, but ultimately limited, set of services
Must not be facilities based and is not fully technology or service neutral
SBO individual license
SBO class license
Application process is required for the
Only registration is required before
stipulated types of opperations and services providing the stipulated types of services
Sources: IDA 2011a, 2011b.
Spectrum Management to Foster Broadband
In the past, as new technologies and services developed, legal and regulatory frameworks often evolved in a piecemeal fashion, with regulators often
charging diferent fees, using diferent assignment mechanisms, and imposing diferent conditions on the various types of spectrum authorizations or
licenses. However, these practices do not facilitate converged service oferings or maximize the value and use of spectrum, since new technologies
enable multiple services and applications to be provided over one network,
allow multiple services to be provided using the same spectrum, and enable
the spectrum to be used more eiciently and intensively.
As a result, policy makers and regulators are looking to replace narrowly
defined technical and service rules with more flexible assignments that
allow providers to match their network and service. In today’s broadband
environment, access to spectrum is particularly relevant, given the anticipated likelihood that for many countries, particularly developing ones,
wireless will be the primary vehicle for deploying broadband networks. For
example, in Morocco, third-generation (3G) mobile broadband connections
surpassed asymmetric DSL (ADSL) wireline connections in September
2009 and represented over 76 percent of the total Internet connections in
the country as of March 2011 (Morocco, ANRT 2011). As a result of this
trend, regulatory authorities and policy makers in many countries are looking at legal and regulatory reforms as necessary to facilitate the supply of
wireless broadband services and the build-out of networks. Such policies
include spectrum allocation and licensing, license terms and conditions
(for example, coverage obligations), license renewals, and procedures to
reclaim and reuse spectrum (for example, the transition from analog to
digital television).
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Spectrum Licensing Regimes
The process for licensing spectrum use typically depends on a country’s
general licensing regime for electronic communications services. The traditional approach that developed in many countries was to issue a servicespecific license to cover both the network or service and the spectrum in a
single document. For instance, prior to adoption of the unified access service license in India, the cellular license was one of 12 service-specific
licenses under the traditional framework (TRAI 2003, 8). As is typical under
a traditional licensing framework, tying the network, service, and spectrum
license together may limit or eliminate the ability of licensees and consumers to capture the benefits of convergence.
More recently, converged licensing frameworks have developed that
generally involve two authorizations: one covering the networks and services to be provided and another covering the spectrum.5 Additionally, the
network or service and spectrum licenses may be issued separately. If issued
separately, the licenses to provide networks and services should be granted
or registered simultaneously with the spectrum licenses to ensure regulatory certainty.
Regardless of the initial procedures for issuing spectrum licenses, spectrum licensing regimes for commercial services should be as flexible as possible, since limiting the flexibility of spectrum licenses can diminish the
value of the broadband service and ultimately undermine the service provider’s investment incentives (Kim, Kelly, and Raja 2010, 47). Regulators can
introduce flexibility through rules that are technology and service neutral,
allocating certain frequency bands for unlicensed or license-exempt use and
using market-based assignment mechanisms, including spectrum trading.
Flexible-Use Technical and Service Rules
A key tool for promoting wireless broadband development is for governments to allow flexible use of spectrum, particularly through technical and
service rules that enable wireless providers to ofer any type of broadband
service or application, including voice, video, and data. Flexible-use rules
may be applied to both current and future commercial assignments to
maximize the benefits of technological evolution and development of
advanced services. For example, the EU’s 1987 Global System for Mobile
Communications (GSM) Directive reserved the 900 megahertz (MHz)
band (890–915 MHz/935–960 MHz) for GSM networks and services only;
however, this was revised in 2009 to permit greater flexibility in choice of
technology and encourage the growth of mobile broadband in this band
(European Union 2009c).
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When considering adopting flexible-use rules for existing licenses,
however, regulators should evaluate the potential competitive implications
of such liberalization and the possible safeguards that would need to be put
in place to address them. This includes determining whether this policy
would place certain providers at a competitive advantage vis-à-vis their
rivals or whether operators should be allowed to retain all or part of the
liberalized spectrum. In case existing providers are allowed to retain the
spectrum, the regulator should consider the possible mechanisms to control for potential windfalls (for example, regulatory obligations and fees). If
some spectrum is to be released back into the market, the regulator should
also consider the manner and timetable in which the assignment of such
spectrum will take place. Regulators will also need to address the impact
that flexible-use rules for broadband spectrum licensing will have on processes in their pipeline, including the assignment of various spectrum
bands in a single process or the adoption of caps to facilitate new entry or
make it possible for an operator to obtain an even blend of spectrum across
diferent bands.
Cognitive radio technologies (CRTs) are also expected to lead to a significant increase in the flexible use of spectrum. A cognitive radio is able to
sense and understand its local radio environment and to identify temporarily vacant spectrum in which to operate. At present, most attention relating
to CRT is placed on opportunistic or unlicensed use (that is, identifying
“unused” portions of spectrum using CRT and sharing the spectrum dynamically with existing users), but it is expected that in the future licensed operators may use CRTs to improve the management of their spectrum
assignments. This represents significant opportunities to optimize the use
of spectrum for the provision of bandwidth-intensive wireless broadband
services and applications.
Spectrum Allocation and Assignment
As the deployment and adoption of wireless broadband increases, additional spectrum is widely expected to be needed to accommodate the
demand of bandwidth-hungry broadband services, including video and
data. For example, the average smartphone user generated 10 times the
amount of traic as the average non–smartphone user between 2009 and
2010. And the number of smartphone users is expected to grow substantially—it is anticipated that most people in the world will use mobile devices
as their primary connection to the Internet by 2020 (GSA 2010).
Beyond introducing converged, flexible licensing frameworks, countries
are also looking at the way (a) spectrum bands are planned and harmonized
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and (b) spectrum blocks are configured, assigned, and transferred. Wherever possible, a key initial step in promoting commercial wireless broadband networks and services is for regulatory authorities to adopt
internationally harmonized band plans when considering the allocation
and assignment of spectrum. This approach facilitates the commercial
launch of broadband services by allowing providers to take advantage of
scale economies in network equipment and devices, thus reducing the costs
of deployment and, ultimately, the prices for consumers. International harmonization also facilitates the ability to ofer roaming services.
Wireless broadband also requires additional bandwidth to be made
available to keep pace with the high data rates needed to support bandwidth-hungry services and applications, such as video. The specific amount
of spectrum will vary by country, depending on the current assignments
and the expected growth in the demand for data services and traic. Nevertheless, to deliver new data-intensive services and applications in a technically eicient and cost-efective manner and at the desired level of quality,
providers will need to obtain additional spectrum. This is especially the
case in large, densely populated urban areas in both developed and developing countries. For example, the U.S. National Broadband Plan seeks to
make 500 MHz of spectrum available for broadband use by 2020, of which
300 MHz between 225 MHz and 3.7 gigahertz (GHz) should be made available by 2015.
In addition, the size of the spectrum blocks awarded to licensees may
need to be revisited. For example, scalable, new International Mobile Telecommunications–Advanced (IMT-Advanced) technologies are best suited
for wider blocks of contiguous spectrum, ranging from 2⫻15 or 2⫻20 MHz
for paired spectrum and a minimum of 20 MHz for unpaired spectrum.
Therefore, regulators are increasingly designating larger spectrum blocks
for the provision of wireless broadband services. Recent assignments for
IMT in countries such as Brazil, Chile, Costa Rica, Colombia, Denmark, the
Netherlands, Norway, and Mexico highlight this approach.
Also relevant is the method of awarding spectrum. Increasingly, countries are using market mechanisms to assign spectrum use rights, particularly through auctions. Competitive award methods are generally viewed as
more open, nondiscriminatory, and transparent than other assignment processes, such as administrative proceedings, and they provide an opportunity
for new entrants. Auctions are also more economically eicient, since those
willing to pay the highest price place the most value on spectrum, while the
winning bids provide additional revenues to governments. For example,
India’s 2010 auction of 3G spectrum garnered over US$14.5 billion for the
government (Kinetz 2010).
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Spectrum trading (also known as “secondary markets”) is another
method that facilitates aggregation of spectrum to meet future data traic
demand requirements by permitting existing licensees to transfer all or a
part of their spectrum assignments to third parties with little or no government involvement in the process. Implemented in Australia, New Zealand,
and the United States, spectrum trading has allowed late entrants to the
mobile market to obtain spectrum rights, which can reduce constraints on
new entrants with regard to the timing of their market entry. In the absence
of spectrum trading, potential entrants and existing operators seeking to
build out their networks further must wait for the government to award
new spectrum assignments. Ultimately, spectrum trading provides the
opportunity for secondary markets to emerge that can improve the rollout
of new services, increase the potential for competitive service provision,
and encourage investments in the sector (for an in-depth study of spectrum management and reform in developing countries, see Wellenius and
Neto 2008).
Although placing greater emphasis on market forces and spectrum trading ofers many advantages over the traditional models of spectrum management, inefective regulatory environments may allow incumbent or
dominant operators to control key, high-value spectrum bands. This could
result in spectrum hoarding and concentration of the wireless broadband
market. As such, there is a trade-of between operators having suicient
spectrum and monopolizing the available spectrum. Many countries seek to
mitigate this through build-out obligations, while others impose spectrum
caps or set aside spectrum blocks for new entrants. However, at least one
study argues that spectrum caps in Latin America may hinder the development of mobile broadband.6 Overall, making as much spectrum available as
possible through transparent and nondiscriminatory procedures is a key
step toward ensuring that operators are able to meet future wireless broadband demands.
Spectrum License Renewal
As spectrum licenses granted in the 1990s and early 2000s reach the end of
their initial terms, license renewal policies will become an increasingly relevant regulatory issue to fostering investment in wireless broadband. In
establishing renewal policies, policy makers and regulators should strive to
promote investors’ confidence and provide incentives for long-term investment while preserving the flexibility of the regulatory process to accommodate market and policy developments (Guermazi and Neto 2005, 2). Legal
certainty is of utmost importance to create an environment conducive to
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investment and the technological upgrades required to deploy wireless
broadband services.
Principle and Procedure for Renewal
While legal regimes vary, most frameworks have adopted a system based on
the “presumption of renewal” or “renewal expectancy.” Under a presumption of renewal, the licensing authority must renew a license as long as the
licensee has fulfilled its obligations and has not violated the law or the terms
of its license. In general, renewal expectancy provisions seek to provide
regulators with the flexibility to review and adjust license conditions in
response to technological developments and market conditions, while providing the regulatory certainty necessary for licensees to continue investments. In Canada, for example, the licensing framework provides a high
expectation of renewal unless a breach of license condition has occurred, a
fundamental reallocation of spectrum to a new service is required, or an
overriding policy need arises.7 Similarly, in Antigua and Barbuda, there are
both a renewal expectancy for the same period as the original license and a
requirement for the regulator to provide 180 days written notice of its intention not to renew. An appeals process to the regulator is also established.
Other countries rely on automatic renewals. For example, Portugal’s
Decree-Law no. 151-A/2000, regarding the use of radio communications,
automatically renews licenses every five years unless the regulator provides
at least 60 days written notice to the licensee stating the reasons for nonrenewal.8 In the Dominican Republic, automatic renewal is warranted in the
absence of a negative finding from the regulator. Some countries, such as
Australia, provide less long-term certainty to incumbents, opting instead for
a legal presumption that, when a spectrum license expires, the license will
be reassigned via a price-based method (for example, auction), unless it is in
the public interest to do otherwise.9
Change in License Conditions and Review of License Fees
Renewal expectation, however, does not necessarily imply that licenses will
be renewed under the same terms as the original license. In setting the
terms and conditions of license renewal, regulators must strike the right
balance between giving certainty to operators and investors and ensuring
that license conditions reflect current policy objectives, respond to technological and market developments, and consider the consumers’ needs. If an
appropriate balance is not struck, proposed changes to licenses and the
review of associated fees in particular can become highly controversial.
For example, France’s regulator, ARCEP (Autorité de Régulation des
Communications Électronique et des Postes), initiated a public consultation
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in 2003 on the renewal of GSM licenses, which were set to expire in 2006
and 2009 (France, ARCEP 2003). ARCEP originally announced that it would
charge a 5 percent progressive tax on annual turnover, but licensees protested that this amount would harm investment and the development of services. The regulator issued its decision in March 2004 after comments from
licensees demonstrated that the high annual fees would negatively afect
investment and the market generally (France, ARCEP 2004b). Although the
government set out new licensing fees, as well as higher coverage obligations and quality of service levels, the annual fees were substantially less
onerous (France, ARCEP 2004a). The new fees required GSM licensees to
pay €25 million annually and 1 percent of annual turnover (France, Ministry
of the Economy, Finance, and Industry 2004). A similar controversy surrounded the renewal process for mobile licenses in Bangladesh, where a
proposal to extract large renewal fees from existing licensees and the imposition of additional obligations created significant opposition from service
providers, apparently causing the government to abandon the idea.10
License-Exempt (Unlicensed) Spectrum
In an efort to provide maximum flexibility for innovation and lower entry
costs for some types of ubiquitous wireless devices, policy makers and regulators in many countries have set aside certain bands exclusively for licenseexempt (also known as unlicensed) uses. In other bands, license-exempt
devices and licensed services share frequencies. Many commonly used
wireless devices, such as cordless phones, garage door openers, and smart
meters for water and gas metering, depend on unlicensed spectrum. In
addition, municipal wireless networks also use unlicensed spectrum to create mesh networks that cover downtown areas or even entire cities.11
Wireless Fidelity (Wi-Fi) is perhaps the most well-known and widespread example of unlicensed use. Many countries have opened the 2.4 and
5.8 GHz spectrum bands for unlicensed use, allowing for the tremendous
growth of Wi-Fi devices. According to ABI Research, consumer devices with
Wi-Fi functionality surpassed 770 million units in 2010, an increase of nearly
33 percent compared to 2009.12 Over half of all Wi-Fi devices are mobile
handsets and laptop computers; however, a wide and expanding range of
equipment is equipped with Wi-Fi, including cameras, fax machines, and
printers. Furthermore, in many countries there has been significant development of “Wi-Fi hotspots” in cafés, libraries, universities, and other public
areas where users can access the Internet for free or at low cost.
An important emerging use for Wi-Fi is as a complement to commercial wireless networks. As wireless broadband services spread, the demand
placed on mobile network capacity is increasing exponentially, putting
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significant strain on available resources. The combination of licensed and
unlicensed spectrum usage—Wi-Fi in particular—is becoming a key complement of the wireless broadband experience, allowing users to oload
their traic from mobile operators’ networks in certain circumstances,
thereby reducing potential congestion and enhancing broadband access.
Technical and service rules for unlicensed spectrum typically specify
that unlicensed devices must operate at low power and may not cause
harmful interference to a licensed user. In addition, unlicensed devices
must generally accept interference from licensed users and other unlicensed devices. Although interference and economic issues may make it
diicult or impossible to replace all spectrum licenses with unlicensed use,
opening bands to unlicensed devices can support broadband development
through the growth of new technologies, eicient use of spectrum, and the
entry of new network, service, and applications providers.
Spectrum Refarming and the Digital Dividend
In order to maximize the ability to ofer wireless broadband, particularly
where spectrum is intensively used, many countries are engaging in spectrum refarming, whereby existing spectrum users are moved out of a band
to allow for new broadband uses. The refarming process is often lengthy
and costly, since it typically involves negotiations with existing private and
public spectrum holders and potential licensees and may also include compensation for the existing licensees to change spectrum bands. As such, it is
important to conduct a thorough spectrum inventory to identify unused or
underutilized spectrum as well as heavily used bands before implementing
a refarming process. In many developing countries, refarming may be less
necessary in the near future since available spectrum may be suicient and
more easily allocated for wireless broadband services.
One of the most promising and active areas of spectrum refarming is the
result of the transition from analog to digital television. As countries around
the world prepare for or complete the transition to digital terrestrial television (DTT), they are examining procedures for reallocating the spectrum
that becomes available as broadcasters vacate the 700 MHz or 800 MHz
bands, depending on the region. This freed-up spectrum, which is widely
known as the “digital dividend,” ofers excellent propagation characteristics
for mobile broadband services by providing an ideal balance between transmission capacity and distance coverage. This means that the digital dividend spectrum is well suited to providing mobile services to rural areas as
well as to providing efective in-building performance in urban areas. For
countries where rural coverage is an important policy goal, this is a notable
advantage.
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However, given the various timelines for the DTT transition—some
countries have completed the transition, while others are planning for the
analog switch-of (ASO) between 2011 and 2020)—many countries are only
beginning to consider rules and timeframes for refarming digital dividend
spectrum. Many countries are waiting to award digital dividend spectrum
until after the ASO is completed and the spectrum is no longer encumbered
by broadcasters. However, some countries, such as the United States,
Colombia, and Peru, have awarded or are planning to award the digital dividend ahead of their ASO dates. Regardless of the approach, considerable
international and regional harmonization is under way, including by the EU
and the Asia-Pacific Telecommunity. Box 3.1 provides an overview of the
DTT and digital dividend activities around the world.
IP-Based Interconnection
Interconnection of diferent networks is critical to ensure a competitive
communications market. It is fundamental for service providers to ensure
that their users have the ability to connect with users of any other network
or service provider. As the Internet expands and becomes more geographically ubiquitous and as traic increases, more eicient IP-based Internet
interconnection will be required. This is especially relevant for developing
countries, where lack of interconnection facilities means that Internet traffic originating there is mostly subject to “tromboning” (that is, using international transit facilities to deliver local traic).13 Policies to facilitate
national or regional Internet exchange points (IXPs), the physical infrastructure where Internet service providers (ISPs) exchange Internet traic
between their networks, will play a crucial role in ensuring more eicient
and cost-efective Internet interconnection in these countries.
Similarly, as the transition toward IP-based NGNs proceeds, questions
will arise regarding the manner and terms under which IP-based interconnection will take place between diferent types of networks and at diferent
functional levels of the network. Especially relevant are issues relating to
future wholesale charging mechanisms that may apply to converged broadband networks. The following sections address current trends and expected
regulatory developments relating to these issues.
Internet Interconnection and IXPs in Developing Countries
Historically, the exchange of Internet traic has been focused in developed
countries. In the early years of the Internet, traic was routed and exchanged
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Box 3.1: Summary of the Digital Television Transition and Digital
Dividend Activities around the World
Digital television transition timelines vary.
Developed and developing countries alike
have been focusing on the digital TV transition and most have adopted ASO dates or
have at least set a goal for completing the
transition by a certain year. While countries
such as Germany, Finland, Luxembourg,
Sweden, the Netherlands, and the United
States have already completed the ASO,
other countries are focusing on 2015–20 to
complete their transitions.
Consideration of the digital dividend is
slow. Less progress has generally been made
toward developing rules and timeframes for
the award of digital dividend spectrum. While
several consultations are expected to begin
over the next two years, including Chile,
Colombia, Ireland, Mexico, and the United
Kingdom, most countries have not established technical and service rules or award
processes for the digital dividend spectrum,
particularly in developing countries.
Approaches to assigning digital dividend
spectrum vary. Generally countries are waiting to award the digital dividend spectrum
until after the ASO is completed and the
spectrum is unencumbered by broadcasters. For example, Finland’s ASO in the 800
MHz band was in 2007, but licenses still
have not been awarded. Some countries,
however, are following the U.S. approach
and are awarding 700 MHz spectrum ahead
of completion of the digital TV transition.
Ireland is likely to auction its digital dividend
spectrum in 2011, but licensees will probably not be permitted to use their new frequencies until completion of the ASO in
2013. Colombia, Mexico, and Peru are also
considering auctioning 700 MHz spectrum
before the ASO date.
International and regional harmonization
is under way. There have been significant international and regional efforts to harmonize
the digital dividend spectrum and develop
common band plans. The International Telecommunication Union (ITU)’s 2007 World
Radio Communication Conference identified
spectrum in the 698–960 MHz band for IMT,
and the ITU is finalizing a revision to ITU-R
Recommendation M.1036-3, which specifies plans for all bands, including the digital
dividend, identified for use by IMT. Regionally, the EU and the Asia-Pacific Telecommunity have agreed on common band plans for
their member states (the two plans are not
the same). To date, there are no formal common band plans for the Americas, Africa, or
the Middle East.
Source: Telecommunications Management Group, Inc.
mainly in the United States. As Internet access has expanded and the
amount of content available has increased, the exchange of Internet traic
has been distributed to other developed countries in Europe and Asia
through the creation of national and regional IXPs (Kende 2011, 25). In the
case of developing countries, while IXPs have been progressively implemented and peering is occurring at the national level, the amount of traic
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that is exchanged within developing regions is still very small. Most of the
traic is still hauled out of the region for switching and then sent back into
the region for delivery.
IXPs in developing countries are important for Internet interconnection for several reasons. By providing an interface for the exchange of local
and regional traic, IXPs facilitate a more eicient and cost-efective management of international bandwidth. Because of their small volume of traffic, ISPs in developing countries mostly have to rely on transit agreements,
since the largest providers do not have incentives to enter into shared-cost
peering agreements with them. Due to the charging mechanisms for international Internet transit, this means that the developing-country ISP will
ultimately bear the costs of outbound and inbound traic. Local peering
through IXPs at the national or regional level helps to resolve this problem
and reduces the costs of Internet access for consumers in developing
countries.
More local interconnection, in turn, allows for the provision of more reliable services, with lower latency that then can support multiple, innovative,
time-sensitive applications. For example, for African ISPs, tromboning adds
an estimated 200 to 900 milliseconds to each transmission. This
added latency can impede the development of new services, such as Internet telephony, streaming audio and video, video conferencing, and telemedicine. By interconnecting at a local IXP, two ISPs (located near to each other)
can overcome this problem and route traic to each other’s networks in 5 to
20 milliseconds.14
As noted, IXPs are now being implemented in some developing countries. Before 2002, there were only two IXPs in Africa, with this number
increasing to 10 by 2003. By December 2010, there were 20 IXPs distributed
among African countries. While this represents significant progress, the
great majority of Internet traic from Africa, around 85 percent, still relies
on connections to Europe; just 1 percent of the traic being exchanged stays
within the region.
From a regulatory perspective, a series of barriers can hinder Internet
interconnection and the establishment of IXPs in developing countries
(McLaughlin 2002). As discussed later in this chapter, Internet interconnection has developed under market-based mechanisms and without the
need for regulatory intervention. However, regulators’ attempts to extend
their mandates to encompass Internet interconnection may result in unwarranted regulation and create disincentives for the deployment of IXPs.
These include, for example, legal restrictions that prohibit the deployment
of nonregulated ICT facilities, such as IXPs. Unduly restrictive or burdensome licensing regimes may also limit the deployment of IXPs. Similarly,
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exclusive rights for the provision of international connectivity, which some
countries maintain, can also impede eicient Internet interconnection.
In some cases, lack of appropriate regulation of the inputs required to
implement efective IXPs, such as national backbone connectivity, may
result in above-cost rates for wholesale services. For example, high costs of
leased lines can significantly afect an IXP’s viability. In addition, deficiencies in regional broadband connectivity play a role in the continued low levels of intraregional Internet traic exchanged in developing regions, like
Africa (Stucke 2006). Lack of relevant local content also afects the extent to
which traic is peered within national or regional IXPs.
Box 3.2 presents a case study of the implementation of the first IXP in
Kenya, which illustrates some of the legal and regulatory diiculties outlined above and how they were overcome.
Box 3.2: Challenges and Successes of Implementing an Internet
Exchange Point in Kenya
Prior to the Kenya IXP (KIXP), all Internet traffic in Kenya was exchanged internationally,
and about 30 percent of upstream traffic was
to a domestic destination. In early 2000, the
Telecommunications Service Providers Association (TESPOK), a nonprofit ISP group, undertook an initiative to implement and operate a
neutral, nonprofit IXP for its six members,
launching the KIXP in Nairobi in November
2000. Almost immediately, Telkom Kenya filed
a complaint with the Communications Commission of Kenya (CCK) arguing that the KIXP
violated its monopoly on the carriage of international traffic. Within two weeks, the CCK
concluded that the KIXP required a license
and ordered it to be shut down as an illegal
telecommunications facility.
After intensive efforts, CCK granted
TESPOK an IXP license in November 2001.
In February 2002, the KIXP went live again
and was relaunched that April, with five ISPs
actively exchanging traffic. Within the first
two weeks, latency was reduced from an
average of 1,200–2,000 milliseconds (via
satellite) to 60–80 milliseconds (via KIXP).
Monthly bandwidth costs dropped from
US$3,375 to US$200 for a 64 kilobits per
second (kbit/s) circuit and from US$9,546 to
US$650 for a 512 kbit/s circuit.
Currently, the KIXC has 31 members peering traffic, some of which are not ISPs, such
as UNON, National Bank, and the Kenya Revenue Authority. TESPOK launched a second
IXP in Mombasa in August 2010 to facilitate
local peering further. While the throughput of
traffic exchanged at the KIXP is low relative to
major IXPs (at around 100 megabits per second [Mbit/s]), KIXP ranks among the top 15
IXPs in terms of growth (around 150 percent
year-on-year increase in recent years).
Sources: KIXP at http://www.kixp.or.ke; Jensen n.d.; Kende 2011.
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107
IP-Based Interconnection: Wholesale Charging
Arrangements
Despite the increasing physical and logical integration between legacy public switched telephone networks (PSTNs), public land mobile networks
(PLMNs), and all-IP networks, two separate models are still typically used
for exchanging traic in these networks. Internet traic is exchanged using
IP-based interconnection and relies on privately negotiated peering and
transit agreements. PSTN and PLMN traic, however, may be exchanged
using a combination of switched and IP-based interconnection, but it is normally subject to regulation and typically falls within two main wholesale
charging arrangements: calling party network pays (CPNP) and bill and
keep (BAK).
As convergence toward NGNs advances, these diferences create potential arbitrage opportunities between regulated and unregulated services and
lead to potential competitive distortions (BEREC 2010, 8). Regulatory
authorities are therefore considering what reforms in wholesale charging
mechanisms, if any, should be implemented at the national level for termination services to enable IP-based services and broadband further. While it
is not clear which wholesale charging arrangements will prevail, some
authorities are expecting that a uniform wholesale charging mechanism for
IP-based interconnection may emerge in the future.
Current Wholesale Charging Arrangements
The majority of countries around the world use CPNP for PSTN-PLMN
interconnection at the wholesale level. Under this system, the originating
network is required to pay a charge, generally per minute or per second, to
the terminating network for the traic exchanged. An alternative approach
is BAK, which is used for PLMN in countries such as the United States,
Singapore, and Canada and is a system where interconnecting operators
generally do not charge each other for terminating calls. These terms are
equivalent to negotiating termination rates equal to zero and typically
include reciprocity obligations, meaning that the same terms are applicable
to both parties to the agreement. Under BAK, the costs associated with call
termination may in some cases be recovered from the service provider’s
own subscribers as that provider sees fit—for instance, by levying a charge
for calls received.
Eicient IP-based interconnection in the Internet has been achieved
for the most part without the need for regulatory intervention. Since no
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single entity has the ability to connect to all of the networks that form the
worldwide Internet, a series of indirect interconnection (transit) and
direct interconnection (peering) arrangements have developed to ensure
that traic will reach its intended destination. In Internet interconnection, the combined framework of transit and peering, together with the
IP packet routing protocols, removes the a priori case for regulation
based on the termination monopoly present in PSTN-PLMN interconnection under CPNP systems. For example, if an ISP denies direct interconnection (peering) to another ISP, the latter ISP is generally capable of
accessing customers of the former, although at diferent costs, as long as it
has an indirect (transit) agreement with a third party.15 This same result is
not generally possible in the circuit switched environment. If the PSTNPLMN provider refuses interconnection, competitors generally cannot
terminate calls to its subscribers.
Future Charging Mechanisms
In the long run, the diferences in interconnection charging arrangements
will not likely be sustainable or eicient in a converged NGN environment,
where more traic will be IP based. Price diferences between regulated
and unregulated interconnection services result in arbitrage opportunities and potential market distortions. Therefore, a uniform wholesale
charging system may be needed for future NGN interconnection. This
could be based on the Internet economic model (Marcus and Elixmann
2008, 114), the PSTN-PLMN model, or some third option resulting from a
combination of both (European Commission 2009a, 32). Others emphasize that, although NGNs and the Internet use IP as a common technology
and are converging in the marketplace by ofering similar or substitute
services, they are organized diferently and so remain separate and distinct, even though they share the same transmission infrastructure, such
as fiber networks (Tera Consultants and Lovells 2010, 79–92). Consequently, it is argued that the two types of networks will not converge since
the Internet is a collection of “open networks” and NGNs are a collection
of “closed” networks (that is, packets cannot be allowed across the interconnection point unless they are authorized), and hence there is no convergence-based argument in favor of a uniform charging system for NGNs
based on BAK.
Despite this, there are some early indications that future wholesale price
mechanisms may resemble IP network pricing, that is, PSTN-PLMN per
minute or per second pricing may migrate to pricing based on barter
Law and Regulation for a Broadband World
109
arrangements (for example, BAK) or on capacity-based interconnection
(CBI). A recent attempt by the Polish regulatory authority to lead regulation
in the other direction (that is, regulating the terms, conditions, and prices
for Internet peering and transit services using tools similar to those applied
to PSTN-PLMN) met with significant opposition from the European Commission (EC) and was eventually discarded in March 2010 (European Commission 2010a).
Similarly, the Body of European Regulators of Electronic Communications (BEREC) has recently put forth proposals for a single terminating
charging mechanism, specifically a shift toward BAK, which it believes
will benefit networks in a converged, multiservice, NGN IP-based environment. If implemented in the future, this approach would result in
wholesale arrangements similar to those used under Internet peering
agreements. In the United States, the National Broadband Plan provides
for the Federal Communications Commission (FCC) to adopt a framework for long-term interconnection reform that creates a glide path to
eliminate per minute interconnection charges, while providing carriers
an opportunity for adequate cost recovery and establishing interim solutions to address arbitrage. Pursuant to this mandate, in 2011 the FCC
began consulting on a major overhaul of the interconnection regime in
the United States, noting the need to move away from per minute charges,
which “are inconsistent with peering and transport arrangements for IP
networks, where traic is not measured in minutes” (United States, FCC
2011, para. 40).
As policy makers consider ways to reform the interconnection regime to
enable broadband development, one of the issues to consider is that termination rates have traditionally been a significant revenue source for PSTNPLMN operators in many countries. This is especially relevant for
developing countries in the case of international voice traic, where incoming calls significantly exceed outgoing calls. Where termination is a major
source of revenue, providers may have the incentive and ability to advocate
for maintaining wholesale termination arrangements subject to the current
switched model (or some variation similar to the current model), notwithstanding the fact that the underlying technical and market drivers will likely
have changed. If call termination rates remain high, many PLMN and some
PSTN operators may have incentives to choose not to evolve their networks
to IP-based interconnection (European Commission 2009a, 32). This could
have a detrimental impact on the development of converged broadband networks.
However, two factors may favor the transition toward NGNs and IPbased interconnection. First, as networks converge toward NGNs and
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data services become increasingly dominant, per minute costs for voice
services are expected to fall. Second, the ongoing worldwide trend
toward regulating termination rates to reflect the underlying incremental costs of termination, especially for PLMN operators, has resulted in a
significant reduction in termination rates in many countries. For example, recent regulatory proceedings in countries such as Colombia, Kenya,
Mexico, and Nigeria have reduced rates to levels comparable to those
prevalent in the EU. As BEREC notes, “The lower the costs per minute
and the closer they are to zero, the less diference between CPNP and
BAK.” This may also facilitate a transition to IP-based interconnection in
many countries.
Access to Infrastructure
The Regulation versus Investment Debate
In designing policies to foster long-term, facilities-based competition, regulators are tasked with balancing the objective of promoting competition
and entry with the need to maintain incentives for investment in new
infrastructure and innovation. This entails identifying facilities that are
not easily duplicated (that is, bottlenecks) and determining if they are
capable of afecting competition in downstream (that is, services) markets.
Such a determination would call for the regulation of such bottlenecks to
give access to competitors on a nondiscriminatory basis and at cost-based
prices, as fostering their duplication would either deter entry or result in
a socially wasteful expenditure of resources. The success of such policies
ultimately tends to pivot on the regulated prices and terms of access to
bottlenecks.
In the absence of functioning market mechanisms, getting access
prices just right is a huge challenge for regulators and will afect the
incentives of both new entrants and incumbents. If prices are too low,
entrants will have no incentive to invest in their own infrastructure, even
when it is economically viable and eicient for them to do so. If access
prices are too high, competitors either will not enter the market or will
choose to deploy their own networks, resulting in ineicient duplication
of networks. Conversely, incumbents may refrain from future investment
in their networks if their facilities are open to competitors at low rates, as
any advantage derived from these investments would be available to
rivals, while risks associated with such investment would be borne
exclusively by the incumbent.
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Regulating Bottlenecks in the Broadband Supply Chain
Supplying broadband services involves a combination of network elements,
processing, and business services that can be thought of as the broadband
supply chain. More fully described in chapter 5, this supply chain can be
divided into four main components: (a) international connectivity, (b)
domestic backbone, (c) metropolitan connectivity, and (d) local connectivity. Bottlenecks in any of the links of the chain will stifle competition and the
development of broadband. Hence, efective regulatory frameworks must
identify and address such instances of market failure in a timely and efective manner.
International Connectivity
As electronic communications traic—particularly Internet traic—enters
and leaves a country, it is typically routed through one or more international facilities, including submarine cables, cable landing stations, and
international gateways.16 Since international facilities provide the entry
and exit point for voice, data, video, and other broadband services, they can
become bottlenecks if access and traic are restricted or prices are set
above costs.
As the adoption of broadband services and applications increases,
demand for international bandwidth also rises. Between 2002 and 2009,
international bandwidth usage increased by 60 percent a year, with the
strongest demand growth taking place on links to Africa, Latin America, and
Middle Eastern countries, which experienced annual growth rates of over
74 percent during this period.
The most eicient way to lower costs and keep pace with demand is
through liberalization and promotion of competition among facilities that
provide international connectivity, in particular, international gateways,
submarine cables, and landing stations. As such, it is important to ensure
that there is more than one international carrier and international gateway
and, where possible, that there are redundant international cables and other
facilities linking a country to competitive global communication networks.
For example, Nigeria supported facilities-based competition in the international connectivity market through the introduction of a unified access
service license in 2006, which allowed licensees to “construct, maintain,
operate, and use an international gateway” and networks consisting of any
type of technology, including wireless or wireline systems (Singh and Raja
2010, 58). While it could be argued that the Nigerian Communications Commission’s (NCC) hands-of approach led to a long period of monopoly control by the incumbent provider, NITEL, over the only submarine cable
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landing in Nigeria, the NCC recently found that a highly competitive market
with multiple cable systems is developing (box 3.3; see NCC 2010).
Facilities-based competition in the international connectivity markets
may not be feasible in all developing countries, especially those that generate small amounts of traic. Also, landlocked countries or isolated small
island developing states (SIDSs) may not have access to submarine cables
and may have to rely on the use of alternative technologies, such as satellites, that often carry a higher price premium.
For countries without a well-functioning international connectivity
market, targeted ex ante regulation may be required to address market failure (Hernandez, Leza, and Ballot-Lena 2010). Some countries, such as
India, Colombia, and Singapore, have adopted various obligations on international gateways, landing stations, and submarine cable systems (for India,
TRAI 2007a; for Colombia and Singapore, IDA 2008). In Colombia, for
Box 3.3: Competition Analysis in the International
Internet Connectivity Market in Nigeria
In its 2010 review of competition in the international Internet connectivity
market, the NCC found that this market was sufficiently competitive on a
forward-looking basis and therefore did not require ex ante regulatory intervention. This determination was based on an expected increase in facilitiesbased competition by 2012, stemming from the landing of four additional
submarine cables, one of which is to be operated on an open-access basis.
In its analysis, the NCC recognized that for the better part of the last decade the market had been dominated by NITEL, which since 2011 was the
monopoly operator of Nigeria’s only submarine cable, the South Atlantic
3/West Africa Submarine Cable (SAT-3/WASC). During this time, competing
providers added only limited extra capacity of their own, mostly via satellite
links and limited terrestrial links. At the time of the market analysis, four new
submarine cables were scheduled to commence service in Nigeria: two in
2010 (Globacom-1 and Main One) and two more within the next two years
(the West Africa Cable System in 2011 and the Africa Coast to Europe in
2012). The NCC noted that the new cables would result in a 33-fold increase
in Nigeria’s international bandwidth and significantly change the competitive
dynamics in the market. As a result, it concluded that any market power
NITEL had been able to exercise in the past should be resolved as competitors enter the market.
Source: Telecommunications Management Group, Inc.
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example, after conducting a review of wholesale inputs for broadband
Internet access, the regulator found that cable landing stations constituted
essential facilities and required landing station operators to provide access
to their facilities on nondiscriminatory terms and to publish a reference
access ofer.17
Self-regulation can also be a tool for reducing costs and increasing access
to facilities required for international connectivity. Consortium agreements
for submarine cable systems, for example, are progressively including nondiscrimination and open-access clauses, whereby third parties are guaranteed access to facilities and capacity at terms comparable to those ofered to
the facilities’ owners or subsidiaries. For instance, the Eastern African Submarine Cable System (EASSy), which runs from South Africa to Sudan with
connections to all countries along its route, includes such safeguards.
Launched in 2010, EASSy allows any consortium member to sell capacity in
any market in the region to licensed operators on nondiscriminatory terms
and conditions (Williams 2008, 42).
Domestic Backbone
Constituting the second level of the network element supply chain, a country’s high-capacity domestic backbone network is essential for broadband
connectivity since it provides the link from international gateways to local
markets as well as domestic connectivity between major cities and towns.
However, backbone networks require extensive investments. A major
impediment to reducing these costs, particularly in many developing countries, relates to vertical integration in which the backbone network providers are vertically integrated with the local access network operators. This
results in a single end-to-end provider that can wield great market power.
As such, other service providers may not have access to the backbone or
may face high costs for interconnecting, a problem addressed in growing
debates on open network access.
From a regulatory perspective, the first step toward facilitating competition in vertically integrated networks is to ensure a liberalized market. In
some countries in Sub-Saharan Africa, for example, mobile operators are
prohibited from using the incumbent’s network for backbone services,
resulting in slow growth in broadband infrastructure. The second step
toward increasing competition may entail targeted, ex ante regulations
requiring the backbone network provider to ofer network capacity on a
wholesale, open-access, and nondiscriminatory basis to downstream providers. Alternatively, some countries are setting up national backbone operators that only provide wholesale broadband services on an open-access
basis in order to prevent any vertical integration. This scheme is being
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implemented or proposed in countries such as Australia, Brazil, Colombia,
Singapore, and South Africa. However, public financing of national backbones should not crowd out private investment or distort competition.
Moreover, where a public subsidy is provided to a backbone broadband
network, open-access obligations should be imposed.
Cross-sector coordination is also relevant to the eicient deployment of
national connectivity. Fiber optic networks are usually built along existing
infrastructure networks such as roads, railways, pipelines, or electricity
transmission lines. Most of the cost of constructing fiber optic cable networks along these alternative infrastructure networks lies in the civil works.
These costs represent a major fixed and sunk investment, increasing the
risks faced by network operators. By lowering the cost of access to these
infrastructure networks and reducing the risk associated with it, governments can significantly increase incentives for private investment in backbone networks. One way to reduce costs is to make rights-of-way readily
available to network developers by simplifying the legal process and limiting the fees that can be charged by local authorities. Additionally, governments can provide direct access to existing infrastructure that they own or
control. For example, a railway company could partner with one or more
operators to build a fiber optic cable network along the railway lines. In
January 2011, for example, Serbian Railways and PTT Srbija agreed to construct telecommunications infrastructure jointly along Serbian Railway’s
corridors, totaling 2,031 kilometers.18 The United States, for example, has
had a policy since 2004 that assists telecommunications providers seeking
access to rights-of-way on federal lands (United States, White House, Oice
of the Press Secretary 2004).
Metropolitan Connectivity
Metropolitan connectivity, also referred to as the “middle-mile” or “backhaul” infrastructure, connects towns to the backbone infrastructure or
remote wireless base stations and then to the operators’ core network. Competitive and well-functioning wholesale markets for backhaul capacity (for
example, leased lines) are a critical component of broadband difusion and
adoption. Developing countries are beginning to focus on core backbone and
backhaul networks as a means to increase broadband deployment. For
example, South Africa established a state-owned fiber-based infrastructure
provider, Broadband Infraco, to provide national backhaul connections on a
wholesale basis.19 Brazil has also begun focusing on backhaul by entering
into an agreement with five wireline operators to build out broadband backhaul networks to 3,439 unserved municipalities in exchange for being
relieved of existing obligations to install 8,000 dial-up-equipped telecenters.
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Particularly for rural and remote areas, wireless technologies may be the
most practical solution for high-capacity backhaul for mobile broadband. A
study from ABI Research notes that the global revenues from wireless backhaul leasing are expected to increase fivefold between 2009 and 2014 as
operators upgrade to Long-Term Evolution (LTE) and traic demands on
mobile networks rise. Recognizing the importance of backhaul for mobile
broadband, the Telecommunications Regulatory Authority of India (TRAI)
recommended to the Ministry of Communications that license conditions
be amended in order to allow service providers to share their backhaul links
from base transceiver stations (BTSs) to base station controllers (BSCs),
noting that such sharing should be permitted via wireless and optical fiber
links (TRAI 2007b, 19–20). TRAI maintained that, particularly where traic
from BTSs to BSCs is low in rural and remote areas, backhaul sharing would
boost coverage, reduce maintenance eforts, and lower costs.
Local Connectivity
Local access networks, also called the “last mile,” refer to the links between
the local switch and the consumer. This last link in the broadband supply
chain has garnered much attention in recent years, as countries seek to
expand service into unserved or underserved areas and to promote competition between operators at the retail level. Unlike other parts of the supply
chain, local access regulation can be divided into two distinct areas of policy
based on technology: wireline and wireless. Although the goals of policy
makers are the same in each case—expand network availability and promote
competition—the approaches must be tailored to the unique opportunities
and constraints entailed in each technology.
Wireline networks. The local access segment (the “local loop”) of the wireline network has historically been built and controlled by the incumbent
provider of the PSTN. For many years, it was assumed that the local loop
services were a “natural monopoly” because they tend to be the most diicult and costly part of the network for alternative operators to replicate.
However, as cable networks and commercial wireless services began competing with traditional telecommunications operators, policy makers began
reexamining the possibility of facilities-based competition or otherwise
promoting service-based competition in the local loop. The degree and
extent of regulatory intervention in access networks, particularly on the
wireline side, depend on the legacy endowment of infrastructure of each
country. In more developed markets, regulation has ranged from a lighttouch approach to more extensive restrictions and obligations, such as local
loop unbundling (LLU; see chapter 5 for a technical description of how LLU
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works). However, in developing countries without significant wireline
(broadband) infrastructure at the local level, such obligations may have limited impact.
LLU obligations require the incumbent to provide access to exchanges
and the physical local loop network so that new market entrants can ofer
services directly to customers without having to reproduce the incumbent’s
network. LLU may be used as a surrogate for infrastructure competition or
as a way of inducing price competition between facilities- and servicesbased competitors. The main advantage of LLU is that it permits much
faster market entry than would be possible if entrants were obliged to construct their own networks. The main disadvantage is that it can be a disincentive to fresh infrastructure investment by the incumbent operator (for
instance, in deployment of a fiber optic network), especially in developing
countries where the local loop is not yet fully built out.
LLU has been widely implemented in Europe, where it was initially
required by a regulation of the European Commission in 2000 (European
Union 2000). It has been credited with stimulating intramodal competition
in some countries. Many other countries around the world have also adopted
LLU obligations (Berkman Center for Internet and Society 2010; see also
Cohen and Southwood 2008), including Japan, Korea, Nigeria, Norway,
Saudi Arabia, South Africa, and Turkey.20 LLU has been applied mainly to
wireline telephone networks for DSL services, although in theory it could
also be applied to other wireline broadband technologies such as cable
modem and fiber to the premises (FTTP). Several countries, including the
Netherlands, Sweden, and Slovenia, have proposed or implemented fiber
unbundling policies.
LLU has not been widely implemented in developing countries. One reason is that the base of installed wireline telephone lines is generally much
lower in developing than in developed nations. Considering the limited regulatory resources in some developing nations, eforts might be better spent
in encouraging full, open, and technology-neutral infrastructure competition, particularly in wholesale markets, rather than devoting scarce resources
to LLU when there are only a limited number of loops to unbundle.
Wireless networks. Commercial wireless networks have been an important
local access technology for more than a decade and have become the predominant means of providing local access to voice and now broadband
services in many developing countries. Wireless networks can help to overcome the last-mile wireline bottleneck by giving consumers multiple options for broadband access. For governments seeking to promote greater
broadband connectivity, wireless ofers some notable advantages, such as a
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lower cost structure in rural areas and faster rollout, since it is easier to
deploy a series of cell towers than to connect each household with a physical
wire. With the introduction of 3G and 4G technologies, wireless networks
are expected to compete directly with, and be substitutes for, wireline
broadband within the next decade. In Austria, for example, the telecommunications regulator (Rundfunk & Telekom Regulierungs [RTR]) determined
in 2009 that DSL, cable modem, and mobile broadband connections for
residential consumers are substitutes at the retail level. The range of policy
options and regulatory changes that could be made to improve wireless
broadband development is set forth below:
• Allocate additional spectrum. To support the expected increase in demand
for advanced services requiring faster download speeds and the greater
use of such services, regulators are implementing policies that promote
the most eicient and efective use of spectrum resources, including freeing up spectrum bands that are either unused or underutilized.
• Flexible allocations. Another major tool for promoting wireless broadband development is for governments to allow flexible use of spectrum
so as not to constrain technology or service developments. This will help
providers to meet the rapidly changing demands of their customers.
• Technology neutrality. Technology neutrality refers to the concept that
operators should be allowed to use whatever technology or equipment
standard they wish in order to meet market demands. Thus, rather
than having regulators mandate that a specific technology must be
used in a certain band, operators are allowed to choose whatever technology they wish, subject to technical limitations—to prevent interference, for example.
• Service neutrality. With the transition to digital technology and better
processing capabilities, advanced systems are now capable of transmitting all kinds of services. Wireless operators can now provide voice,
high-speed data services, and video over their networks. Government
regulators should modify service and licensing terms to allow operators
to realize the benefits of this flexibility.
• Greater use of market mechanisms. The move to market mechanisms can
be seen in two important trends: assigning spectrum to operators using
some sort of competitive mechanism (for example, auctions) and charging market-based prices for acquiring or using spectrum. Having a competitive, transparent means of assignment can also give service providers
greater access to spectrum. In conjunction with a regime that allows
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flexible use of spectrum, such competitive assignment can enable new
models of service provision.
• Spectrum trading. Once spectrum has been assigned, spectrum trading
(secondary market license transfers) allows later entrants to a market to
access spectrum by paying a market price for it. This improves competition by allowing companies who want (new or additional) spectrum to
acquire it from those who may have excess spectrum in specific areas.
• Mobile virtual network operators (MVNOs). Another way to introduce
additional competition into the market is for governments to permit
MVNOs to contract with existing mobile carriers to gain access to capacity and network services that they then use to establish their own services and brand. The MVNO model, however, has not been universally
successful, as its impact appears to depend on the specifics of a country’s
mobile market structure.
• Coverage obligations. Governments can promote wireless broadband
availability by establishing coverage obligations at the time of initial licensing. License requirements tied to coverage obligations, however,
must be carefully considered. Requirements that are too easy to meet run
the risk of not significantly expanding broadband coverage. Conversely,
overly strict requirements are unlikely to be met and could result in
either no interest in a license or lower payments.
Infrastructure Sharing
As governments seek ways to expand broadband networks and promote
competition in broadband services, they inevitably encounter diiculties. In
some areas, low population densities may make it unlikely that the market
will support multiple competing wireline or wireless infrastructures. In
addition, for some buildings in urban areas, there may not be suicient
physical space to run multiple sets of fiber or copper cables to each potential
user or to place wireless towers and other equipment. In such cases, policy
makers and regulators have begun to encourage—or even require—parties
to share the physical infrastructure used to deliver broadband services.
Two types of infrastructure sharing are generally being considered
today. “Passive” sharing includes common use of support structures, such
as towers, masts, ducts, conduits, trenches, manholes, street pedestals, and
dark fiber. “Active” sharing involves electronics, switching, power supplies,
and air conditioning, among other elements. Infrastructure sharing can
take many forms, with the most common being collocation (the sharing of
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physical space in buildings), tower and radio access network sharing, access
to dark fiber for backhaul, and backbone networks and physical infrastructure sharing (ducts and conduits).
Infrastructure sharing is rapidly becoming an important means of promoting universal access to networks and ofering afordable broadband services by reducing capital expenditures and ongoing operating expenses
associated with the rollout and operation of networks. In recent years, a
noticeable trend has been toward voluntary sharing of active and passive
network facilities around the world, especially in the mobile sector. A push
to upgrade and expand networks for mobile broadband is resulting in service providers searching for ways to cut costs and raise capital. For example,
service providers may create joint ventures that manage the combined
infrastructure assets either for shared use by its owners or on an openaccess basis. This allows for network optimization and for avoidance or
decommissioning of redundant sites, leading to significant cost reductions
for the parties involved. The joint venture in the United Kingdom between
Hutchison 3G and T-Mobile, now joined by Orange after its merger with
T-Mobile in the United Kingdom, and the pan-European agreement
between O2 and Vodafone to share infrastructure in Germany, Spain, Ireland,
and the United Kingdom highlight this trend toward increased voluntary
sharing in the sector.
The trend of sharing mobile infrastructure also extends to developing
countries. In India, for example, the regulator, TRAI, proposed sharing
rules for the mobile sector in 2007, both for active and passive components.
Since then, Bharti Group, Vodafone Group, and Aditya Birla Telecom (Idea
Cellular) have created Indus Tower, a joint venture that controls over
100,000 towers and provides passive infrastructure service to its shareholders and other third parties. Also in India, the drive to raise capital for 3G
auctions and deployment during 2010 led to significant divestiture of mobile
towers to independent companies that operate them on an open-access
basis. For example, in January 2010, an Indian tower company, GTL Infrastructure, acquired 17,500 towers from Aircel, making GTL one of the largest independent tower companies in the world. American Tower, another
independent tower company, has also been acquiring towers in countries
such as Chile, Brazil, Ghana, India, Mexico, Peru, and South Africa, with the
aim of providing open access to such infrastructure.
Many other regulatory authorities, including those of Bangladesh,
Nigeria, and Pakistan, have adopted policies to promote infrastructure sharing, especially in the mobile sector. Carefully crafted policy measures can
increase time to market, introduce new forms of competition, and foster
take-up for ICT services. Sharing also addresses the environmental impact
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of ICT infrastructure, reducing duplicative mobile towers that afect a city’s
skyline, for example. However, close ties and information exchanges
between providers that participate in sharing agreements may create concerns with regard to competition, as they could facilitate collusion and
reduce competition at the retail level if suicient control over the network
and services is not maintained and the provider’s ability to diferentiate
retail ofers and innovate is curtailed. When promoting voluntary sharing,
regulatory authorities and policy makers must balance the potential benefits and costs of such measures, in order to achieve the desired objective of
promoting more competitive markets and increased rollout of services.
On the wireline side, several governments are promoting a variety of
shared infrastructure approaches. In the most interventionist cases, such as
Australia, New Zealand, and Singapore, policy makers have directed the
establishment of a single, open-access network that will provide infrastructure services on a wholesale basis to a variety of downstream service providers. Rather than establish an entirely separate network, France has taken a
more regulatory approach by setting up sharing requirements and obligations for firms building out fiber networks to more rural areas and to apartment buildings.21 Other countries are also considering regulations that will
require incumbent operators (usually those that hold significant market
power or are former monopoly providers) to make their infrastructure
available to alternative carriers. This concept might also be extended to
other, often government-owned, entities, such as power companies that
maintain towers for electricity distribution.
Opening Vertically Integrated Markets
Benefits and Costs of Vertical Integration
Vertical integration, in which a single firm controls multiple levels of the
supply chain, is commonly found in ICT markets around the world and
often involves the same firm owning and operating network infrastructure
as well using this infrastructure to ofer retail services to end users. Two
main advantages for a vertically integrated firm is the ability to achieve
higher economies of scale and lower costs of production by reducing the
costs of coordinating upstream and downstream activities. In a competitive
market, these eiciencies can benefit consumers through lower retail prices.
However, vertical integration may create barriers to entry for new competitors, particularly in the telecommunications sector, where a dominant operator may control essential infrastructure (Crandall, Eisenbach, and Litan
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2010, 494–95). In such cases, a dominant, vertically integrated operator may
strategically discriminate against competitors and stifle competition.
Remedies to Anticompetitive Conduct
by a Vertically Integrated Operator
To address competitive concerns associated with vertical integration,
some regulators have required dominant operators to separate vertically to
some degree through accounting separation, functional separation, or, in
extreme cases, structural separation.
Accounting Separation
The least intrusive and most prevalent remedy, accounting separation,
makes transparent the vertically integrated operator’s wholesale prices and
internal transfer prices, enabling regulatory authorities to monitor compliance with nondiscrimination obligations or to ensure that there is no crosssubsidization. Generally, accounting separation requires the vertically
integrated operator to maintain separate records for its upstream and downstream costs and revenues in order to allow the regulator to set wholesale
prices for the regulated upstream services. These records are typically subject to independent audit and may also be made publicly available. Although
the operator must make its costs transparent, under this remedy it is able to
continue benefiting from the eiciencies of vertical integration.
In 2004 the Info-communications Development Authority (IDA) of Singapore issued accounting separation guidelines to allow monitoring of the
ICT sector for potential anticompetitive behavior (IDA 2004). These guidelines established two levels of accounting separation: detailed segment
reporting (applicable to dominant service providers and entities they control) and simplified segment reporting (certain other entities). This twotiered approach is intended to provide the IDA with the necessary
information, without unduly burdening operators, to ensure that no dominant provider is engaging in cross-subsidization or discrimination. Currently, incumbent SingTel is the only operator designated as dominant in
any market, and it is subject to detailed accounting separation obligations.
Functional Separation
Obligations under functional separation range from simply requiring the
operator to establish separate divisions for upstream and downstream
activities to requiring the operator to separate the wholesale and retail divisions physically. This may involve the separation of employees (for example, physical separation of oices and prohibitions on the same employee
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working for both divisions) and the separation of information (for example,
limitations on the type and amount of information that may be shared
between divisions). Since there is no actual change in ownership or ultimate
control under functional separation,22 the operator can continue to enjoy
many of the benefits of vertical integration (European Regulators Group
2007). More intrusive than accounting separation, regulators may implement functional separation in “exceptional” cases where there has been
persistent failure to achieve efective nondiscrimination in relevant markets
and where there is little or no prospect of efective competition within a
reasonable period after less intrusive remedies have been attempted (European Union 2009b, para. 61).
The 2009 EU Telecoms Reform formally granted national regulatory
authorities explicit authority to require network operators holding significant market power to separate functionally their communication networks
from their service branches, but only as a last-resort remedy (European
Parliament and Council of Ministers 2009). Prior to requiring functional
separation, the national regulatory authority must first find that all less
intrusive, market-based remedies have failed to achieve efective competition.23 Next, it must submit a proposal of functional separation to the European Commission, with evidence justifying the regulatory intervention and
an analysis of the likely market impacts. Among the provisions that must be
included in the proposal are the precise nature and level of separation, the
legal status of the separate business entity, identification of the separate
business entity’s assets and the products or services to be supplied by that
entity, governance arrangements to ensure the independence of the staf,
rules for ensuring compliance with the obligations, and a monitoring program to ensure compliance, including the publication of an annual report.24
To date, no EU member state has mandated functional separation. In
some cases, such as that of the United Kingdom, dominant operators have
voluntarily implemented functional separation. There, BT (formerly British Telecom) agreed to establish a separate division for access services
called Openreach, which provides most of BT’s wholesale products. According to the European Commission, BT’s functional separation led to a surge
in broadband connections, from 100,000 unbundled lines in December
2005 to 5.5 million by 2008 (European Commission 2009b).
Structural Separation
Structural separation involves full disaggregation of the vertically integrated
operator’s wholesale and retail divisions into separate, individual companies, each with its own ownership and management structure. All benefits
associated with vertical integration are eliminated. Regulated structural
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separation is considered a last-resort measure and is typically used only if
other regulatory interventions have failed and a comprehensive cost-benefit
analysis has been conducted.25 Structural separation is extremely diicult to
reverse and can dramatically afect the market, such as by increasing regulatory uncertainty and afecting infrastructure investment. Additionally, it is
diicult to allocate the separated firms’ assets and liabilities in order to
ensure the ongoing viability of both entities. As a result, regulatory authorities rarely impose structural separation as a remedy.
In 2010, the Australian Parliament passed the Telecommunications Legislation Amendment (Competition and Consumer Safeguards) Act 2010
(Australian Government 2010). The act and implementing regulations set
out the procedures by which the dominant fixed-line operator, Telstra, must
structurally separate control over its copper and hybrid fiber coaxial network infrastructure as well as its provision of wholesale access services,
from retail fixed voice and broadband services (Australia, Department of
Broadband, Communications, and the Digital Economy 2011). In August
2011, Telstra submitted to the Australian Competition and Consumer Commission its structural separation undertaking plan, which commits Telstra
to full structural separation by July 1, 2018.26 Telstra’s structural separation
is set to occur through the progressive migration of its fixed-line networks
to the National Broadband Network (NBN) Company, which is rolling out a
national broadband network to be provided on a wholesale-only basis.
Additionally, the plan sets out various measures by which Telstra will ensure
transparency and equivalence in the supply of regulated services to its
wholesale customers during the transition to the NBN. In exchange for
structurally separating and providing the NBN Company with access to its
fixed-line infrastructure, Telstra will receive compensation in the amount of
$A 11 billion.27
Network Neutrality
Network neutrality (“net neutrality”) generally refers to the notion that an
ISP should treat all traic equally, whether content, application, or service.
Based on this principle of nondiscrimination, proponents of net neutrality
seek to restrict the ISP’s ability to interfere with or inappropriately manage
Internet traic (Atkinson and Weiser 2006). Blocking or slowing down (also
referred to as “throttling”) the delivery of certain types of content, applications, or services is one of the main concerns of net neutrality advocates.
However, such network traic practices may be considered necessary to
ensure that illegal content is not distributed or to manage networks better
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during congested periods. Another issue relates to prioritization of certain
types of traic. This may occur where ISPs deliver latency-sensitive traic,
such as voice or streaming video, faster than traic that is not latency sensitive, such as a music download. Prioritization may also occur where an ISP
charges application or content providers to be guaranteed better or faster
access to subscribers.
Additionally, net neutrality proponents generally seek to improve the
transparency of what the ISPs are doing with regard to traic management
and other Internet-regulating actions. This involves whether an ISP discloses to interested parties its network management practices, such as
blocking, degrading, or prioritization. Interested parties may include consumers, the government, and applications, content, and service providers.
Goals of Net Neutrality Regulation
Regulatory authorities have tended to focus on several overarching goals
when instituting net neutrality consultations and rules over the last several
years, including (a) consumer protection, (b) promotion and preservation of
access and innovation, and (c) safeguarding of freedom of speech and freedom of information. Consumer protection issues include transparency and
disclosure requirements as well as prohibitions or restrictions on blocking
or degrading subscribers’ use of lawful content, applications, and services.
The second goal addresses the access that content, applications, and service providers have to an ISP’s network, particularly if their services compete with an ISP’s services. For example, an ISP may block applications for
VoIP services if these services compete directly with the ISP’s voice telephony service. Another example may involve paid prioritization in which an
ISP favors one content provider over another through a peering agreement,
which could afect competition among content providers. Finally, there is
also a concern that as new applications and services are developed, providers may find their access blocked or limited—either for (anti)competitive
reasons or because new entrants do not have the ability to pay for priority
access on an ISP’s network.
Regulatory Approaches
As policy makers consider whether net neutrality provisions are needed in
their country, they may find it useful to view the possible approaches to net
neutrality along a spectrum. At one end of the spectrum, a policy would
require “pure” net neutrality of no discrimination; the ISP would be prohibited from managing Internet traic in any way and would simply work on a
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“best eforts” basis, delivering all content on equal terms. Companies would
be prohibited from charging content providers for priority or favored access.
At the other end of the spectrum, a policy would permit an ISP to engage in
any network management practice, including allowing it to block users from
accessing certain types of legal content, applications, or services without
the users’ knowledge. Although a country may not have specific net neutrality policies or rules in place, issues related to blocking, delaying, or prioritizing traic may be addressed by competition laws, while transparency and
disclosure may be addressed by consumer protection laws or laws protecting freedom of information or speech.
In practice, regulatory authorities are adopting net neutrality policies all
along this spectrum. For instance, a regulator may find that it is not necessary
to regulate ISPs’ network management practices, but that stronger rules on
transparency of traic management policies are required to ensure that consumers are well informed. This is the case, for example, of the EC policy on
net neutrality contained in the April 2011 report, “The Open Internet and
Net Neutrality in Europe” (European Commission 2011). The report frames
traic management as a quality of service issue for consumers relating to (a)
the blocking or throttling of lawful Internet traic and (b) Internet traic
management practices. The EC does not impose any rules or restrictions on
the blocking or throttling of lawful Internet traic, but it does recognize concerns over possible consumer protection or competition issues. Instead, the
EC recommends that national regulatory authorities conduct further inquiries into such practices before adopting any rules or guidelines on the matter.
Similarly, the EC recognizes that traic management is necessary to ensure
the smooth flow of Internet traic, particularly when there is network congestion. As such, the EC does not impose any rules or restrictions on traic
management practices, such as packet diferentiation, IP routing, or filtering
between “safe” and “harmful” traic. The only rules imposed by the EC in
the open Internet report, aside from the ability to switch providers in one
business day, are associated with transparency and disclosure. These rules
require Internet providers to ensure that adequate information about their
services is available to consumers, including identifying any possible restrictions on access to certain services, actual connection speeds, and possible
limits on Internet speeds. Additionally, providers must make certain that
consumers are informed about traic management practices and their efect
on service quality (for example, bandwidth caps), prior to signing a contract.
Under another approach, a regulator may decide to institute both new
network management and transparency rules, but fall short of requiring
“pure” net neutrality by permitting ISPs to discriminate against certain
types of traic for a specific purpose (for example, to manage congestion)
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and according to a set of standards, such as “reasonable network management.” This is the case in France, where ARCEP released a report entitled
“Neutrality of the Internet and Networks: Proposals and Guidelines” in September 2010 (France, ARCEP 2010). In the first proposal, ARCEP recommended that ISPs be required to provide end users with (a) the ability to
send and receive the content of their choice; (b) the ability to use the services and run the applications of their choice; (c) the ability to connect the
hardware and use the programs of their choice, provided they do not harm
the network; and (d) a suiciently high and transparent quality of service.
Under the second proposal, ARCEP recommended that ISPs may not discriminate against diferent types of traic, whether by type of content, service, application, device, or address of origin or destination. Under the
guidelines, exceptions to the first two recommendations may be acceptable
if an ISP follows the third proposal by complying with the “general principles of relevance, proportionality, eiciency, nondiscrimination between
parties, and transparency.” Pursuant to the fourth proposal, ARCEP will
permit ISPs to provide managed services along with Internet access services, but will require them to maintain Internet access service quality at or
above a minimum, satisfactory level. However, ARCEP did not specify what
this minimum quality of service level should be.
In the fifth proposal of the net neutrality guidelines, ARCEP addressed
transparency and disclosure requirements. For example, ARCEP requires
that, in their marketing materials, service contracts, and customer information through the duration of the contract, ISPs must clearly and concisely
disclose to end users all relevant information regarding (a) the services and
applications that can be accessed through these data services, (b) the quality
of service, (c) the possible limitations of the service, and (d) any traic management practices that may afect the user. In particular, any restrictions on
data transmission that do not conform to the first two recommendations
must be disclosed to users.
Like France, Chile has also adopted net neutrality rules limiting discrimination by ISPs against access to and use of legal online services, applications, and content. In addition, Chile was the first country in the world to
enact broad net neutrality legislation under the Chilean Net Neutrality Act,
which was signed into law on August 18, 2010. The law focuses on the principles of nondiscrimination and transparency and prohibits ISPs from
blocking, throttling, or discriminating against the transmission of any legal
application, service, or content. However, ISPs are allowed to manage traic
on their network, but not in an anticompetitive fashion. Chile’s regulator,
the Subsecretaría de Telecomunicaciones (SUBTEL), issued the implementing regulations of the net neutrality law in March 2011.28
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Table 3.1 Status of Net Neutrality Initiatives in Select Countries
Stage in process
No consultation
In consultation
Rules or
legislation
adopted
Position along the spectrum
(least to most stringent)
Country
Considered net neutrality, but found no problems
requiring a consultation and subsequent rule; will
continue to monitor
Denmark, Germany,
Ireland, Portugal
Nonbinding neutrality guidelines
Norway
Information gathering on current practices potentially to
establish rules
Italy
Transparency or disclosure rules proposed, but no traffic
management
United Kingdom
Transparency or disclosure rules and traffic management or nondiscrimination rules proposed
Brazil, Sweden
Transparency or disclosure rules, but no traffic management or nondiscrimination rules
European Commission
Transparency or disclosure rules and traffic management or nondiscrimination rules
Canada, Chile, France,
the Netherlands,a
United States
Source: Telecommunications Management Group, Inc.
a. Lower house of Parliament passed in June 2011, upper house to pass by December 2011.
Table 3.1 summarizes the approaches being taken in selected countries as
well as each country’s progress in the process of developing net neutrality
rules.
Distinction between Wireline and Mobile Broadband Services
Existing mobile networks generally present operational constraints that
wireline broadband networks do not typically encounter, particularly relating to eicient use of the spectrum. This puts greater pressure on concepts
such as “reasonable network management” for mobile broadband providers. As a result, some regulatory authorities have recognized the need to
establish diferentiated network management rules for wireline and mobile
broadband services.
This is the case in the United States, where the FCC’s open Internet order
applied transparency rules equally to both wireline and mobile broadband
network services, but applied diferent network management rules to the
diferent technologies. However, while the rule for mobile broadband is less
stringent than the rule for wireline, it still prohibits operators from blocking
certain websites or VoIP applications, as is occurring in several European
countries, such as Sweden and the Netherlands.
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Similarly, in France net neutrality rules would be applicable to any broadband access technology (that is, to both wireline and mobile networks).
However, ARCEP may implement the rules diferently, particularly with
respect to the means of assessing which traic management mechanisms
are acceptable. ARCEP might allow mobile operators to restrict access to
certain sites or applications for objective, nondiscriminatory, and justified
reasons on the basis that mobile networks are currently more vulnerable to
congestion due to scarcity of available frequencies and the surge in data traffic generated by smartphones. However, ARCEP proposed that traic management practices of mobile network operators must satisfy technical
imperatives and cannot involve banning or blocking an application or a protocol (including VoIP, peer-to-peer, or streaming) and must not use these
practices as a substitute for investing in increasing network capacity.
In the EU, the open Internet consultation also briefly addressed whether
principles governing traic management should be the same for both wireline and mobile networks. The consultation notes that wireline broadband
providers have not blocked VoIP services, but that some mobile operators
have blocked VoIP services from third-party providers or have charged
rates to end users in excess of normal rates for equivalent amounts of data.
Since traic management rules were not imposed by the open Internet
report, no distinction is made between wireline and mobile services. However, the transparency, disclosure, and switching rules apply equally to both
wireline and mobile Internet providers.
Security in Cyberspace
Broadband services and applications are increasingly expanding into every
aspect of our lives. Greater numbers of consumers are now using broadband
Internet connections for education, entertainment, banking, and shopping
as well as to interact socially and with their governments. Businesses are
using broadband to increase their internal eiciency and productivity, and
online web representation has become more important for many businesses
than traditional marketing channels such as printed publicity materials.
Furthermore, essential services, such as water and electricity supply, banking, transportation infrastructure, and public safety, now heavily rely on
critical information infrastructure (CII; see ITU-D 2009b, 11).
In an increasingly broadband-connected environment, even brief interruption, degradation, or compromise of service may have significant social,
economic, and political consequences that negatively afect consumers,
businesses, and governments. Given these consequences, the success of
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broadband requires a significant focus on security.29 Due to its broad scope,
cybersecurity may be seen as enabling both the supply of and demand for
broadband. From the demand side, users need to feel safe online if they are
to take full advantage of broadband services and applications, and businesses need to have confidence in their ability to leverage broadband to
increase productivity and engage in online activities. From the supply side,
to guarantee stable and dependable services, CII must be protected from
attacks. In addition, governments must possess the capabilities to enforce
cyber laws, which in many cases requires cross-border cooperation. As
such, cybersecurity and cybercrime policies, laws, regulations, and enforcement will play a critical role in development of the broadband ecosystem.
This legal framework may include criminal codes, laws on privacy, commercial transactions, and electronic communications, and laws relating to criminal procedure and enforcement, among others. Overall, these policies and
laws must balance the many inherent trade-ofs between, for example, the
desire to access information conveniently and easily, on the one hand, and
the need to protect data privacy and security, on the other hand.
Data Protection
The ability to protect digital data is essential to promoting a safe and secure
broadband ecosystem, which increases consumer confidence and thereby
enhances demand. Data protection generally includes the protection of
users’ personal identifying information, such as banking, medical, credit
card, and other private data, as well as the protection of intellectual property and other sensitive, proprietary information of businesses and governments, such as employee data or client information. Efective cybersecurity
policies and regulations are needed to combat the many costly violations of
data privacy occurring each year, including computer hacking to steal a person’s identity or remotely deleting information through viruses.
Security of Critical Information Infrastructure
Securing critical national infrastructure, and specifically CII, is also a key
component of facilitating the success and stability of broadband networks.
Infrastructure is considered to be critical if its destruction would have a
debilitating impact on the defense or economic stability of the country. Thus
electricity grids, telecommunications systems, transportation, water supply
systems, banking and finance, and emergency services are all deemed to be
critical infrastructure (Brunner and Suter 2008–09, 35).
International cooperation is a significant aspect in securing CII. It is
important to consider the role of standards and the role of government in
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developing those standards. Generally, a global standard is developing
around critical infrastructure protection aimed at ensuring that any disruptions to CII are brief, infrequent, manageable, isolated, and minimally detrimental (Commission of the European Communities 2005, 1). However,
national frameworks vary widely as to which cybersecurity issues are
addressed and how CII is protected.
At both an international and a national level, private, governmental, and
nongovernmental sectors need to take steps to increase the security of their
networks, services, and products. The efectiveness of any critical infrastructure protection program is directly proportional to the extent of cooperation among these actors. For this purpose, computer emergency response
teams (CERTs) are being implemented in countries around the world as a
means of identifying cyber vulnerabilities and defending against cyber
attacks (box 3.4).
Box 3.4: Computer Emergency Response Teams
CERTs are cooperative endeavors among governments, academic institutions, and commercial entities aimed at identifying cyber vulnerabilities and
defending against cyber attacks. Generally, CERTs focus on technical issues
and information sharing, thereby providing early warning functions of cybersecurity breaches (Satola and Judy forthcoming, 8). They are designed to
promote information sharing and strengthen coordination among both the
private sector and government agencies. For example, in March 2011, the Sri
Lankan computer emergency response team (SLCERT) identified several
fraudulent websites located in India and China that were selling fake tickets
online to the Cricket World Cup 2011 in order to steal users’ credit card information (Dissanayake 2011). SLCERT was able to inform the Indian computer
emergency response team about these fake websites and is seeking legal
action against those responsible.
Greater international cooperation among CERTs, such as the Sri Lankan
and Indian CERTs, is facilitated through the Forum of Incident Response and
Security Teams (FIRST), which brings together 238 CERTs across 48 countries, including the national coordination centers for India, Singapore, Brazil,
Argentina, Colombia, Qatar, and Saudi Arabia. FIRST aims to foster cooperation and coordination in incident prevention, to stimulate rapid reaction to
incidents, and to promote information sharing among members and the
community at large. Thus, both FIRST and other CERTs are a positive step
toward coordinating international responses to cybersecurity problems.
Source: Telecommunications Management Group, Inc.
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Cybercrime
Cybercrime can be broadly described as criminal ofenses committed within
or against computer networks or by means of computer networks. Cybercrime policies and laws focus on the investigation and criminalization of
certain ofenses, as well as their prevention and deterrence. As such, cybercrime covers a wide range of conduct, which can generally be divided into
four broad categories, as defined by the Council of Europe’s (2001) Convention on Cybercrime:
1. Ofenses against the confidentiality, integrity, and availability of computer
data and systems
2. Computer-related ofenses
3. Ofenses related to infringements of copyright and related rights
4. Content-related ofenses.
All of the ofenses in the first category are directed against one of the
three legal principles of confidentiality, integrity, and availability. As opposed
to crimes that have been covered by criminal law for centuries, the computerization of crime is relatively recent. In order to prosecute these acts, existing criminal law provisions need not only to protect tangible items and
physical documents but also to safeguard the above-mentioned legal principles. Some of the most commonly occurring ofenses in this category
include illegal access (hacking and cracking), data espionage, illegal interception, data interference, and system interference.
Computer-related ofenses cover cybercrimes that require computer
access to commit. These ofenses tend to have more efective and stringent
legal repercussions than ofenses in the other categories mentioned above.
The most common computer-related ofenses include computer-related
fraud, computer-related forgery (phishing and identity theft), and the misuse of devices. The main diference between computer-related and traditional fraud is the target of the fraud; if a person is targeted, then it is
traditional fraud, but if a computer or computer system is targeted, it
becomes computer-related fraud. Although some criminal law systems do
not yet cover the manipulation of computer systems for fraudulent purposes, ofenders often still can be prosecuted. Nonetheless, many governments may need to include computer-related ofenses in their definitions of
various crimes in order to prosecute. Because of the broad scope of these
ofenses, some may fall within the ICT regulator’s jurisdiction, such as those
relating to consumer protection. Computer-related ofenses, such as fraud
and forgery, generally fall within the purview of criminal law enforcement
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authorities, while others like the protection of privacy or unsolicited communications (spam) may be the responsibility of data protection authorities
or a consumer protection agency. However, if mandates overlap, it is critical
for all relevant authorities to coordinate the exercise of their respective
functions (Gercke et al. 2010, 6).
Ofenses related to infringements of copyright and related intellectual
property rights (IPRs) are another category of cybercrime. These violations
relate to the unauthorized or prohibited use of protected works, trademarks,
or patents, facilitated by using the Internet’s inherent ability to disseminate
information. With regard to content-related ofenses, the development of
legal instruments to deal with these ofenses is heavily influenced by
national approaches. The classification of content-related activity as a criminal ofense or as protected free speech is dependent on each country’s cultural and legal frameworks. The following sections address these issues.
Cybersecurity and the Need for International Coordination
Cybersecurity is highly globalized because cybercrimes and other attacks
can be committed against Internet users, businesses, or governments from
anywhere in the world. As such, international coordination is pivotal to the
success of cybersecurity. Cybercrime and cyberwar have very clear and
direct negative efects on economic activity, but cyber defense can have similar negative efects, due to its high cost and information ineiciencies
caused by the deliberate isolation of networks and databases from one
another.
Several barriers exist to a successful international cybersecurity framework. One is that diferent countries take diferent approaches to cybersecurity, which can lead to a lack of multistakeholder participation in both
policy making and legislation. Another problem is that upstream policies
promoting an e-agenda conflict with the downstream protections of rights
and property. In addition, legal concepts may be outdated in the burgeoning
world of cyberspace. The core issues of jurisdiction and sovereignty make it
diicult to cross borders to address international cybersecurity events. A
fourth issue is simple human error when using the Internet or writing software code. A final barrier to international cybersecurity coordination is that
existing cybersecurity tools are often not fully applied. For example, liability
in some countries is often imposed on a case-by-case basis rather than pursuant to statutory and regulatory requirements aimed at the particular issue
(see, for example, United States, FTC 2010a, 2010b, 2010d; Martin, Judy,
and Pryor 2010). These issues, however, are not insurmountable. Rather,
concerted, efective national legislation and international coordination
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frameworks prepared to prevent, identify, and prosecute cybercrimes are
needed to ensure the safety of the Internet and ICTs.
Privacy and Data Protection
Threats to privacy and data protection must be addressed to foster demand
and promote broadband take-up. Legal and regulatory tools to address these
issues can help to build consumer trust and confidence, which are indispensable for a full broadband experience. While consumer privacy and data
protection are not novel subjects, broadband difusion and technology
innovation compound the potential risks associated with the collection, use,
protection, retention, and disposal of a wide range of personal information.
Increased data processing and storage capabilities, advances in online profiling, and the aggregation of online and oline information are allowing a
diverse set of entities to gather, maintain, and share a wide array of consumer information and data.
Consumers care about their privacy online. For example, when the social
networking service Facebook released new privacy controls in December
2009, 35 percent of its 350 million users worldwide at the time chose to revise
and customize their account settings (United States, FTC 2010c, 28). Governments are also concerned with protecting their citizens from practices
that may violate their privacy. The worldwide controversy regarding Google’s
data and image collection practices for its Street View, Maps, and Latitude
services and the implications for data privacy highlights this point. Over
20 countries around the world have launched investigations into Google’s
practice of collecting photos and information to map Wi-Fi networks, reaching diferent findings and leading to multiple remedies, including fines.30
The unprecedented ability to collect data, often without the knowledge
of the individual whose data are at issue (“the data subject”), poses new,
broadband-specific challenges and opportunities linked to ensuring online
privacy and data protection. Issues such as cloud computing, online behavioral advertising, web tracking, and location-based services may create
additional privacy risks, but may also provide tremendous benefits for consumers in the form of new products and services. However, increased collection of personal data is not limited to businesses and the private sector.
Governments also increasingly collect such data from their citizens as they
engage in e-government and other initiatives. Thus, to promote broadband,
countries must set up frameworks that strike the appropriate balance
between the benefits to citizens and consumers of new and innovative
technologies and the risks such technologies may create to their privacy and
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personal data. Also, due to the cross-border nature of Internet data traic
flows, international cooperation and coordination will be critical to enforce
online privacy frameworks.
Scope of Privacy and Data Protection
in a Broadband Environment
Privacy and data protection in the broadband environment must continue
to focus on assessing risks to consumer information throughout its life
cycle—from collection to use to storage to transmission to disposal—and
then on adopting safeguards that are reasonable and appropriate to mitigate
the identified risks. To date, two broad approaches toward personal data
protection have been adopted around the world. Many countries, such as
EU member states and many Latin American countries, have opted for a
rights-based approach to personal data protection. Under this system, personal data protection is regulated as a fundamental right that applies to all
personal data, irrespective of the type of data.31 By contrast, countries such
as the United States have to date relied on “broad self-regulation and targeted sectoral legislation to provide consumers with data privacy protection” (United States, FTC 1998).
More recent developments seem to be bridging this divide, with the
European Commission and the U.S. Federal Trade Commission proposing
many common changes and upgrades to privacy protection in the wake of
rapid technological developments associated with broadband services and
the Internet (European Commission 2010b). This includes emphasizing
informed consent, requiring increased transparency of data collection, raising awareness, and increasing responsibility of data controllers (that is, privacy by design).32
Informed Consent
Informed consent refers to the “freely given specific and informed indication” of an individual’s agreement to data collecting and processing activities and allows the consumer to make informed and meaningful choices.
Broadband-enabled activities, such as online behavioral advertising, raise
new questions regarding informed consent and the extent to which, for
example, Internet browser settings may be considered to deliver such consent or whether a more uniform, comprehensive mechanism should be
adopted for online behavioral advertising, sometimes referred to as “do not
track.” While there may be no clear international trend at this time, development of informed consent mechanisms likely will continue to be a key factor
for online privacy protection in a broadband world.
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Privacy by Design
“Privacy by design” advances the view that privacy cannot be assured solely
by compliance with regulatory frameworks, but instead requires privacy
considerations to become engrained in everyday business practices
(Cavoukian 2011). Both the European Commission and the U.S. Federal
Trade Commission are proposing to follow this approach as a means to
enhance a data controller’s (whether it be a business or a government)
responsibility in handling personal data. Under this approach, companies
should incorporate substantive privacy protections into their practices,
including data security, reasonable collection limits, sound retention practices, and data accuracy. They should also maintain comprehensive data
management procedures throughout the life cycle of their products and services. Privacy and data protection authorities are currently looking at ways
to encourage compliance with such policies and enforcing possible instances
where data controllers have exercised an insuicient level of care.
Broadband and the Scope of Personal Data
Broadband-enabled data profiling is blurring the line of what constitutes
personally identifiable information (PII) subject to protection. Certain categories of PII, such as an individual’s name, address, or personal identification
number, used to be clearly defined and protected. As noted by the U.S. Federal
Trade Commission, however, the comprehensive scope of data collection
that comes with broadband applications and services allows disparate bits
and pieces of “anonymous” information from online and oline sources to be
aggregated to create profiles that can be linked back to a specific person, thus
making old definitions of PII less relevant. This view is in line with that of
Europe, where all information relating to an “identified or identifiable person” should be protected, including “all means likely reasonably to be used
either by the controller or by any other person to identify said person.”33
Mexico has recently implemented a broad definition as part of its 2010 data
protection legislation, defining personal data to include “any information
concerning an identified or identifiable individual.”34 Expansion of the scope
of protected personal data will continue to pose challenges as innovation
increases the type of data that may be aggregated in innovative ways and
then used to trace information back to a specific identifiable individual.
Increased Transparency in Data Collection
In the broadband world, consumers must be given suicient information to
make informed choices regarding the collection and use of their personal
data. The proliferation of actors and technical complexity involved in
activities such as behavioral advertising make it increasingly diicult for
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individuals to know when their data are being collected, by whom, and for
what purpose. This requires more transparency by data controllers about
how and by whom data are collected and processed. In addition, this
information needs to be presented in a way that consumers will understand.
Even when privacy policies are provided, they often are long and incomprehensible for many consumers. As such, when consumers are faced with the
burden of trying to read and understand these policies, they often simply
scroll through them and accept the terms provided without really knowing
what they are accepting. Increased transparency in a broadband environment may be addressed by facilitating standard privacy notices drafted
using plain language or by educating consumers on privacy matters. Also,
transparency is enhanced using policies such as data breach notifications.
Awareness Raising
There is also a need to raise awareness, especially among younger users,
regarding the impact of broadband and new technologies on personal privacy. In many cases, consumers may not know or understand enough about
the data collection and use practices and their privacy implications. For
example, as social networking services, or other similar applications,
become increasingly popular ways to interact online, it is critical to educate
young people about safe social networking and other online issues. Data
protection authorities have a key role to play in educating individual users
by holding conferences, workshops, and media campaigns and in encouraging industry to engage in awareness-raising initiatives. Chapter 6 further
addresses the issue of raising awareness and educating users on matters
relating to privacy.
International Enforcement and Policy Cooperation
Proliferation of complex, cross-border data flows and cloud computing services and applications demand increased international cooperation to
enforce privacy and data protection. The Internet makes it easier for entities established in one country to provide services in another and to process
data online. However, this often makes it diicult for authorities to determine the location of the personal information and the equipment used to
process it. As the European Commission notes, however, this fact should not
deprive the data subject of protection.
Thus international cooperation and coordination are key elements for
enforcement actions. To this end, several international initiatives are
under way dealing with cooperation and coordination for the enforcement
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of privacy laws. One example is the 2007 Organisation for Economic
Co-operation and Development (OECD) Council’s Recommendation on
Cross-Border Co-operation in the Enforcement of Laws Protecting
Privacy.35 On this basis, in 2009, 13 privacy enforcement agencies from
around the world created the Global Privacy Enforcement Network to
facilitate cross-border cooperation in the enforcement of privacy laws.36
Similarly, in 2010, the Asia-Pacific Economic Cooperation (APEC) forum
established the APEC Cross-Border Privacy Enforcement Arrangement
(CPEA), a multilateral cooperation network for APEC privacy enforcement authorities, with the participation of authorities from Australia,
Canada, the United States, and Hong Kong SAR, China.37
Regulation of Broadband Content
Content is the currency of the Internet: more, better, and timely content
means higher visibility, more visitors, and increased revenue. Thus more
relevant, more local content is the strongest vehicle to enhance broadband
demand. The laws and rules that regulate content in the oline world have
been gradually applied to and adapted for online content, even as the pace
of innovation online threatens to render them obsolete. Online content can
be produced by traditional methods or generated collaboratively by the
users themselves—it can be a song played by an Internet radio station, a viral
video in an embedded YouTube clip, a blog post, or a news article published
by a news website.
Broadband has enabled the easy transfer of all kinds of voice, data,
video, and multimedia content. The ability to disseminate and access
legal content online is critical to broadband deployment. It afects the
development of new services and applications, the launch of innovative
online businesses and services, and the active participation of individuals
in social and political spheres. Regulation of content over broadband has
significant implications both for the supply of broadband services and
applications (for example, securing the rights to distribute content) as
well as for the demand for broadband (for example, the existence of compelling content to attract users). This section reviews the intersection of
supply and demand factors with the legitimate goal of regulating some
forms of online content, recognizing the need to establish an appropriate
balance between the two. In addition, this section addresses certain regulations of IPRs over broadband and certain content-related business
practices that may have anticompetitive efects that hinder broadband
development.
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Freedom of Opinion and Expression
One of the fundamental rights of persons is the right to freedom of opinion
and expression, which includes freedom to hold opinions without interference and to seek, receive, and impart information and ideas through any
media and regardless of frontiers.38 Content regulation, including surveillance and monitoring of Internet use, needs to take into account the standards set by international human rights law and the unique nature of the
Internet.
A recent report by the Special Rapporteur on the Promotion and Protection of the Right to Freedom of Opinion and Expression of the United
Nations’ Human Rights Council notes that any restriction by a state of the
right to freedom of expression must meet the strict criteria under international human rights law.39 The report concludes that the flow of information
via the Internet should be as free as possible, except in few, exceptional, and
limited circumstances prescribed by international human rights law. It also
stresses that the full guarantee of the right to freedom of expression must be
the norm, that any limitation should be considered as an exception, and that
this principle should never be reversed.
The collaborative web, sometimes called Web 2.0, has revolutionized the
way people communicate. Facebook, Twitter, and other social networking
websites allow citizens to discuss, debate, and organize. Citizen journalists
have democratized the gathering and dissemination of news; postings on
personal blogs and user-submitted videos on YouTube are often the first
outlets to break a news story. In fact, many have noted that the uprisings in
the Arab nations in 2011 were organized in part through the use of social
networks such as Facebook and Twitter (see, for example, Giglio 2011).
With faster speeds, and in particular faster upload speeds, broadband can
facilitate collaboration as well as access to information. As more and more
Internet users employ the web, not just to consume but also to share, the
Internet can become a virtual town square for citizen participation. By the
same token, restrictions on Internet use, the censorship of certain information, or even restrictions on access posed by “net neutrality” concerns can
cut of this vital avenue for citizen engagement. Governments will need to
strike a balance between the legitimate need to restrict illegal content and
the rights of users to participate freely and lawfully in cyberspace.
Some commentators have proposed that a new economy is emerging
where people contribute freely to the production of information goods and
services outside of the market (for example, Wikipedia; see Benkler 2006).
Such a “networked information economy” has the potential to increase
individual autonomy by allowing individuals to do more for themselves and
Law and Regulation for a Broadband World
139
by providing alternative sources of information from both faraway and nontraditional sources such as other individuals.
Regulating Specific Forms of Content
Countries have diferent social, cultural, and moral traditions. These traditions generally are enforced by legislation that prohibits the display or dissemination of certain types of content. Governments have legitimate reasons
to regulate content: protection of minors, prevention of vices, and protection of national security, to name a few. Tensions are inevitable, as countries
attempt to strike the right balance between the regulation of content on the
Internet and the protection of fundamental rights, such as freedom of
expression and information, which are strongly enabled by broadband;
broadband-enabled Internet will make such restrictions more diicult to
enforce.
When a provider of prohibited content operates within a country’s borders, the country’s laws should be suicient to shut it down.40 However, if
the proscribed content comes from overseas, such as from a foreign website,
the prohibition can be diicult or impossible to enforce. Nonetheless, more
and more countries are implementing Internet controls of ever-increasing
sophistication, including monitoring and filtering.41
Sometimes content is restricted by a government, possibly in an attempt
to protect a domestic industry’s interest. Such appears to be the case with
online gambling in the United States. In 2006, the federal legislature, in an
attempt to impede U.S. residents from gambling online, passed the Unlawful
Internet Gambling Enforcement Act. The law prohibits gambling businesses from accepting funds from gamblers wherever it would be unlawful
under federal or state law.42 Passage of the law prompted Antigua and
Barbuda to file a complaint with the World Trade Organization, in which it
claimed that the United States had violated its commitment under the
General Agreement on Trade in Services to free trade in recreational services. The World Trade Organization ultimately ruled in favor of Antigua
and Barbuda and awarded it the right to suspend US$21 million annually in
IPRs held by U.S. firms (WTO 2007, 55).
Government regulation is not the only option for restricting certain types
of content. For example, the movie and video game industries, among others, voluntarily rate their content in order to help consumers to identify
content appropriate for themselves and their families. The Family Online
Safety Institute, an international nonprofit organization, administers a program whereby websites rate their content in terms of language, violence,
and sexual content, in response to a standard questionnaire.43 In addition,
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commercial vendors have developed personal computer (PC) applications
that employ keyword-based filtering to allow parents to control the kinds of
websites their children can visit. Similarly, the development of industry
codes of practice relating to online content may be another viable alternative to government regulation. This is the case, for example, in Australia,
where the Internet Industry Association has adopted a Code of Industry
Co-Regulation Relating to Internet and Mobile Content.44
Another relevant issue in the regulation of content over the Internet
relates to the issue of ISP liability. If a user posts prohibited content on
his or her website, is the ISP that hosts the website liable? In many countries,
the answer is no: ISPs and online service providers (OSPs) such as YouTube
or Facebook are not liable for the content that users upload to their systems
as long as they are not specifically aware of the prohibited content. This
applies not only to prohibited content such as child pornography, but also to
infringement of IPRs, defamatory statements, and fraudulent activity,
among others. If it were not for this “safe harbor,” ISPs and OSPs would have
to monitor every last bit of user-contributed content and analyze it for
possible legal repercussions—likely making many of today’s most popular
and innovative websites infeasible to operate. However, if an ISP or OSP
becomes aware or is made aware of prohibited content on its system, it must
act promptly to remove it or risk losing its safe harbor.
Such is the case of copyright in the United States, where the Digital Millennium Copyright Act (DMCA) creates a safe harbor for ISPs and prescribes the procedure that rights holders should follow to request the
removal of illegally posted content.45 The EU policy for ISP liability is very
similar to that of the United States.46 South Africa’s Electronic Communications and Transactions Act of 2002 largely follows the example set by the
United States and the EU for ISP liability by creating a DMCA-like “notice
and takedown” system (the first such system in Sub-Saharan Africa).47 In
May 2010, Chile became the first country in Latin America to amend its legislation in order to regulate ISP liability.48 Chile’s law follows the familiar
“notice and takedown” scheme; however, the notice must be issued by a
court after the rights holder presents evidence in an expedited hearing.
Intellectual Property Rights
Compared to the limited bandwidth networks of the past, broadband’s
inherent capacity to transmit large amounts of information has made it easier to share all types of copyrighted works, including songs, books, and videos. And as the software to find and share such works has gotten better and
easier to use, the problems associated with the illegal sharing of copyrighted
Law and Regulation for a Broadband World
141
works has become a major issue. IPRs refer mainly to the rights of those
persons or entities that hold copyrights, patents, or trademarks. IPRs have
long been recognized and protected to encourage investment in and creation of new artistic works, inventions, and businesses. But the very things
that make the Internet so powerful—its global reach, low cost, nearly frictionless nature, and potential for anonymity—can enable careless or unscrupulous users to infringe easily on the intellectual property rights of others.
A major concern for copyright holders is illegal file sharing, which is the
duplication and dissemination of digital files among Internet users. One of
the most powerful aspects of the Internet is how it facilitates the sharing
of information between users of all backgrounds, regions, and levels of
expertise. But the free sharing of copyrighted works—for example, MP3
files containing copyrighted songs—is likely to be considered a copyright
infringement. With digital media, an unlimited number of bit-perfect copies of a work can be made and disseminated. And with faster broadband
connections, users can share and download more and larger files—not just
songs, but movies, television shows, and PC applications (particularly
games) as well.
Copyright holders successfully litigated against the first generation of
file-sharing networks, including services such as Napster, that operated
based on a centralized index. Victory in court meant taking down the central index, efectively shutting down the network. Users soon started sharing files using new peer-to-peer technologies such as BitTorrent, which
because of their decentralized nature, are much harder to shut down than
first-generation file-sharing networks (Sisario 2010).
To combat illegal file sharing, some countries have enacted so-called
graduated response or “three-strikes” laws. France was perhaps the first
country to try this method, introducing such a law in 2009 (France, Ministry of Culture and Communication 2009). Under the law, users who
infringed copyrights online would be given a first and second warning.
Upon a third infringement, users could be subject to a fine, jail time, and
suspension of their Internet access. Monitoring of infringing users was
suspended in May 2011 because the software used to collect infringers’ IP
addresses and send them to the government was found to contain major
security flaws; however, there has been no change to the three-strikes
law itself (Bright 2011). New Zealand’s Copyright (Infringing File Sharing) Amendment Act 2011 also puts in place a three-notice regime to
deter illegal file sharing. Other countries, including Malaysia and India,
have considered similar laws (Moya 2010). A proposed international
agreement known as the Anti-Counterfeiting Trade Agreement has in
some drafts included graduated response measures (Kravets 2010).
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An alternative solution involves copyright holders working directly with
ISPs, forgoing formal legal proceedings. Under this system, copyright holders that detect infringement from a certain IP address contact the ISP in
control of that IP address and relay their findings. The ISP then searches its
records to correlate the IP address with one of its customers. Finally, the ISP
contacts the customer directly, warning the customer that copyright
infringement is a violation of the ISP’s terms of service and could lead to
disconnection. No customer information is revealed to the copyright
holder as part of this process. At least one study shows that the majority of
Internet users would cease the ofending activity after receiving a warning
(Helinger 2008).
Other issues concerning IPRs in the broadband arena include protection of patents and trademarks. It is easy to infringe patents either
intentionally or inadvertently, especially software and business model
patents. Trademarks are often involved in cases of cybersquatting (that is,
registering a domain name containing someone else’s trademark with the
intent to deceive or hold it for ransom) and counterfeiting, which is especially common in online auction sites such as eBay. IPRs often run contrary to the concept of a free and open Internet and indeed must be
carefully balanced with the rights of users to comment, discuss, and participate freely online.
Notes
1. IPTV Business Act, http://www.glin.gov/view.action?glinID=205548.
2. Telecoms Korea, “IPTV Subscribers Top 1 Million in Korea,” October 2009,
http://www.telecomskorea.com/market-7674.html.
3. infoDev and ITU, “ICT Regulation Toolkit, Module 7: New Technologies and
Impacts on Regulation,” sec. 3.3.2, Technology Neutrality, http://www
.ictregulationtoolkit.org/en/Section.1833.html.
4. Article 3 of the Electronic and Postal Communications Act, 2010, http://www
.tcra.go.tz/policy/epoca.pdf.
5. infoDev and ITU, “ICT Regulation Toolkit, Module 3: Authorization of
Telecommunication/ICT Services,” sec. 6.6, Spectrum Authorizations, http://
www.ictregulationtoolkit.org/en/Section.1200.html.
6. GSM World, “GSMA Urges Latin American Regulators to Relax Spectrum Caps
to Foster Broadband Development,” Press Release, January 19, 2009, http://
www.gsmworld.com/newsroom/press-releases/2009/2437.htm.
7. In March 2011, following a public consultation opened in 2009, Industry
Canada determined that where all conditions for the personal communications
services or cellular license had been met, licensees would be eligible to receive
a new license for a subsequent term. See Industry Canada (2011).
Law and Regulation for a Broadband World
143
8. Decree-Law no. 151-A/2000 (July 20, 2000), http://www.anacom.pt/render
.jsp?contentId=17094.
9. On March 3, 2010, the minister for broadband, communications, and the digital
economy announced that spectrum license reissue would be considered for
those existing 15-year spectrum licensees that were already using their
spectrum licenses to provide services to significant numbers of Australian
consumers or who had in place networks capable of providing services to
significant numbers of consumers. As part of an eventual decision, consideration will be given to the five public interest criteria, which were supported by
industry, stemming from the 2009 consultation process. The criteria are (a)
promoting the highest-value use for spectrum, (b) investment and innovation,
(c) competition, (d) consumer convenience, and (e) determining an appropriate
rate of return to the community. See Australia, Parliament of the Commonwealth, House of Representatives (2010).
10. Financial Express, “Mobile Operators’ Plea for ‘Reasonable’ Renewal Fees,”
February 9, 2011, http://www.thefinancialexpress-bd.com/more.php?news_
id=125552&date=2011-02-09; TeleGeography, “Bangladesh: Government
Agrees to Revise Mobile Licence Renewal Terms,” April 13, 2011, http://www
.telegeography.com/products/commsupdate/articles/2011/04/13/governmentagrees-to-revise-mobile-licence-renewal-terms/.
11. Competitive concerns have been raised regarding municipally owned and
operated wireless broadband networks, especially in cases where they may
crowd out investment from private parties.
12. ABI Research, “Wi-Fi IC Shipments Forecast to Surpass 770 Million Units in
2010,” November 2010, http://www.abiresearch.com/press/1664-Wi-Fi+IC+Shi
pments+Forecast+to+Surpass+770+Million+Units+in+2010.
13. See infoDev and ITU, “ICT Regulation Toolkit, Module 2: Competition and
Price Regulation,” sec. 4.8.1, The Role of Internet Exchange Points, http://www
.ictregulationtoolkit.org/en/Section.2192.html.
14. infoDev and ITU, “ICT Regulation Toolkit, Module 2: Competition and Price
Regulation,” sec. 4.8.3, Internet Exchange Points in Africa, http://www
.ictregulationtoolkit.org/en/Section.2195.html.
15. The point that peering and transit arrangements are demand-side substitutes
has recently been made by the European Commission in a case involving the
Polish regulatory authority’s proposal to regulate these services as separate
relevant markets. See European Commission (2010a, para. 36).
16. Traic can also be routed using satellite connectivity, which may be the only
alternative in many developing countries, including landlocked countries and
SIDSs. However, satellite links have certain drawbacks such as limited capacity,
are more expensive, and experience delays in transmission.
17. Colombia, Comisión de Regulación de Comunicaciones, Resolution no. 2065
(February 27, 2009).
18. Serbian Railways, “PE Serbian Railways and PTT Serbia Signed the Contract on
Telecommunications Infrastructure Construction along the Lines,” January 13,
2011, http://www.serbianrailways.com/system/en/home/newsplus/viewsingle/_
params/newsplus_news_id/26885.html.
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19. Independent Communications Authority of South Africa, “Infraco ECNS
[Electronic Communications Network Services] License,” October 2009, http://
www.infraco.co.za/Legal/ECNS%20License.pdf.
20. infoDev and ITU, “ICT Regulation Toolkit, Module 2: Competition and Price
Regulation,” sec.7.6.5, Competition and Sharing, http://www.ictregulationtoolkit
.org/en/Section.3486.html.
21. ARCEP has promulgated a series of regulations that cover fiber deployments in
the country. Diferent rules apply to installations in rural as opposed to urban
areas. In addition, the Law on Modernizing the Economy (August 2008)
introduced the idea of fiber “mutualization,” whereby the fiber installer must
make the fiber available to other companies. ARCEP also contemplated (but
ultimately did not adopt) a requirement that multiple strands of fiber be
installed initially to accommodate multiple providers.
22. infoDev and ITU, “ICT Regulation Toolkit, Practice Note: Structural and
Functional Separation of Mobile Network Operators,” http://www
.ictregulationtoolkit.org/en/PracticeNote.aspx?id=3268.
23. Under the 2009 Telecoms Reform, the market-based remedies are obligations
of transparency, nondiscrimination, accounting separation, access to and use of
specific network facilities, and price control and cost accounting. See European
Union (2009a, art. 13a).
24. Amended EU Access Directive, art. 13a.
25. infoDev and ITU, “ICT Regulation Toolkit, Practice Note: Structural Separation
Explained and Applied,” http://www.ictregulationtoolkit.org/en/PracticeN
ote.3149.html.
26. Telstra, “Telstra Lodges Structural Separation Undertaking and Migration
Plan with ACCC,” Press Release, August 1, 2011, http://www.telstra.com.au/
abouttelstra/media-centre/announcements/Telstra-lodges-StructuralSeparation-Undertaking-with-ACCC.
27. Telstra, “Telstra Signs NBN Definitive Agreements,” Press Release, June 23,
2011, http://www.telstra.com.au/abouttelstra/media-centre/announcements/
telstra-signs-nbn-definitive-agreements-2.xml.
28. Decree no. 368 of March 18, 2011.
29. The World Summit on Information Society (2003, para. 35), Geneva Declaration of Principles, for example, recognizes that “strengthening the trust
framework, including information security and network security, authentication, privacy and consumer protection, is a prerequisite for the development of
the Information Society and for building confidence among users of ICTs.”
30. Google has to adopt a series of remedial measures spanning from image
blurring (required in Canada, Germany, and Switzerland), preannouncing
itineraries, and marking its vehicles (required in Italy). In addition to photographs of streets, Google collected information to map Wi-Fi networks and, in
doing so, collected (inadvertently, as determined by some authorities to date)
personal information, including e-mails, URLs, and passwords. In light of this,
Google has agreed to modify its privacy practice and delete personal data
collected (in countries such as Austria, Canada, Denmark, and Ireland). Google
also has been subject to monetary penalties for these breaches, including a
Law and Regulation for a Broadband World
145
€100,000 fine imposed in France in March 2011. For a description of Google’s
practice, see Canada, Oice of the Privacy Commissioner (2010).
31. The Treaty of Lisbon, consolidated versions of the Treaty on European Union,
and the Treaty on the Functioning of the European Union, Charter of Fundamental Rights of the European Union, art. 16 and 8, respectively, http://europa
.eu/lisbon_treaty/full_text/index_en.htm. See also the European Convention
on Human Rights, adopted by member states of the Council of Europe, art. 8.
The central piece of legislation relating to data protection in the European
Union is Directive 95/46/EC, on the protection of individuals with regard to
the processing of personal data and on the free movement of such data. In
addition, Directive 2002/58/EC, concerning the processing of personal data
and the protection of privacy in the electronic communications sector (the
e-Privacy Directive), regulates areas that were not suiciently covered by
Directive 95/46/EC, such as confidentiality, billing and traic data, and rules
on spam. This directive was subsequently amended by Directive 2009/136/EC
of 25 November 2009 to, among other things, enhance privacy and data
protection of Internet users.
32. A data controller is a person (natural or legal) who alone or jointly with others
determines the purposes and means of the processing of personal data.
33. Recital 26 of Directive 95/46/EC.
34. See Article 3 § V, of the Law on the Protection of Personal Data Held by Private
Parties (July 7, 2010), http://www.dof.gob.mx/nota_detalle.php?codigo=515063
1&fecha=05/07/2010.
35. The recommendation provided that OECD member countries should foster the
establishment of an informal network of privacy enforcement authorities and
should cooperate with each other to address cross-border issues arising from
the enforcement of privacy laws. See OECD (n.d.).
36. Current members include authorities from Australia, Bulgaria, Canada, the
Czech Republic, the European Union, France, Germany, Guernsey, Ireland,
Israel, Italy, the Netherlands, New Zealand, Poland, Slovenia, Spain,
Switzerland, the United Kingdom, and the United States. See https://www
.privacyenforcement.net/.
37. The CPEA aims to (a) facilitate information sharing among privacy enforcement authorities in APEC economies, (b) provide mechanisms to promote
efective cross-border cooperation between authorities in the enforcement of
privacy law, and (c) encourage information sharing and cooperation on privacy
investigation and enforcement with privacy enforcement authorities outside
APEC. See http://www.apec.org/en/Groups/Committee-on-Trade-andInvestment/Electronic-Commerce-Steering-Group/Cross-border-PrivacyEnforcement-Arrangement.aspx.
38. Article 19 of the Universal Declaration of Human Rights and Article 19(3) of the
International Covenant on Civil and Political Rights.
39. Any limitation on the right to freedom of expression must pass the following
three-part cumulative test: (a) it must be provided by law, which is clear and
accessible to everyone (principles of predictability and transparency), (b) it
must pursue one of the purposes set out in art. 19, para. 3, of the International
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40.
41.
42.
43.
44.
45.
46.
47.
48.
Covenant on Civil and Political Rights, namely to protect the rights or reputations of others or to protect national security or public order or public health or
morals (principle of legitimacy), and (c) it must be proven as necessary and the
least restrictive means required to achieve the purported aim (principles of
necessity and proportionality). See United Nations, Human Rights Council
(2011, 8).
The case of Ligue Contre le Racisme et L’Antisémitisme v. Yahoo! Inc., RG:
00/05308, T.G. (Paris, November 20, 2000), was one of the first national court
cases to attempt to restrict content. The case involved the display for sale of
Nazi memorabilia via Yahoo.fr. It afected not only cross-border e-commerce,
but also ISP liability for content of third parties available on the provider’s
service as well as jurisdictional issues.
See, for example, for example, OpenNet Initiative’s research at http://opennet.
net/research/regions/asia. ISP filtering is also a key component of the Australian government’s cybersafety plan; see http://www.dbcde.gov.au/funding_
and_programs/cybersafety_plan/internet_service_provider_isp_filtering.
See 31 U.S.C. § 5361 et. seq.
Family Online Safety Institute, “ICRA Tools,” http://www.fosi.org/icra/.
See Code for Industry Co-Regulation in the Areas of Internet and Mobile
Content (May 2005), http://www.acma.gov.au/webwr/aba/contentreg/codes/
internet/documents/iia_code_2005.pdf.
Online Copyright Infringement Liability Limitation Act, 17 U.S.C. § 512.
Directive 2000/31/EC.
Public Law no. 25 of 2002, http://www.info.gov.za/view/DownloadFile
Action?id=68060.
Law no. 20.435 (amending Law no. 17.336 on Intellectual Property), art. 85 L-U
(May 2010), http://www.leychile.cl/Navegar?idNorma=1012827.
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Council of 25 November 2009 Amending Directives 2002/21/EC on a Common
Law and Regulation for a Broadband World
149
Regulatory Framework for Electronic Communications Networks and Services,
2002/19/EC on Access to, and Interconnection of, Electronic Communications
Networks and Associated Facilities, and 2002/20/EC on the Authorisation of
Electronic Communications Networks and Services.” Oicial Journal of the
European Union 61 (December 18). http://eur-lex.europa.eu/LexUriServ/
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———. 2009c. “Directive 2009/114/EC of the European Parliament and of the
Council Amending Council Directive 87/372/EEC on the Frequency Bands to
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09:274:0025:0027:EN:PDF.
France, ARCEP (Autorité de Régulation des Communications Électronique et
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———. 2004a. “Le communiqué de presse du Ministère de l’Économie, des Finances
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pi1[motscle]=gsm&tx_gsactualite_pi1[backID]=2122&cHash=36545c20e5.
———. 2004b. “Décision n° 04-150 de l’Autorité de Régulation des Télécommunications en date du 24 mars 2004 proposant au ministre chargé des télécommunications les conditions de renouvellement des autorisations GSM de la société
Orange France et de la SFR.” ARCEP, Paris, March. http://www.arcep.fr/
uploads/tx_gsavis/04-150.pdf.
———. 2010. “Neutralité de l’Internet et des réseaux: Propositions et orientations.”
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France, Ministry of Culture and Communication. 2009. “LOI n° 2009-669 favorisant la difusion et la protection de la création sur Internet.” Ministry of Culture
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conferen/albanel/creainterenglish.pdf.
France, Ministry of the Economy, Finance, and Industry. 2004. “Renouvellement
des licences de téléphonie mobile (GSM) des opérateurs Orange et Cégétel.”
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.budget.gouv.fr/fonds_documentaire/archives/communiques/2004/c0403191
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Gercke, Marco, Tatiana Tropina, Christine Sund, and Youlia Lozanova. 2010. “The
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Giglio, Mike. 2011. “The Cyberactivists Who Helped Topple a Dictator.” Newsweek,
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GSA (Global Mobile Suppliers Association). 2010. “Digital Dividend Update.” GSA,
Sawbridgeworth, U.K., November 5. http://www.gsacom.com/gsm_3g/info_
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Guermazi, Boutheina, and Isabel Neto. 2005. “Mobile License Renewal: What Are
the Issues? What Is at Stake?” Policy Research Working Paper 3729, World Bank,
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Helinger, Mark. 2008. “Survey: ISP Warning Would Stop 70% of U.K. File-Swappers.” Digital Media Wire, March 4. http://www.dmwmedia.com/
news/2008/03/04/survey:-isp-warning-would-stop-70%25-u.k.-file-swappers.
Hernandez, Janet, Daniel Leza, and Kari Ballot-Lena. 2010. “ICT Regulation in the
Digital Economy.” GSR-10 Discussion Paper. International Telecommunication
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dgso-002-11-pcs-e.pdf.
IDA (Info-communications Development Authority of Singapore). 2004. “Accounting Separation Guidelines (Revised with Efect from 24 December 2004).” IDA,
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Regulation/Policies_and_Regulation_Level1/Revised_ASG.pdf.
———. 2008. “International Sharing: International Gateway Liberalization;
Singapore’s Experience.” Paper prepared for the eighth Global Symposium for
Regulators, Pattaya, Thailand, March 11–13. International Telecommunication
Union, Geneva, February. http://www.itu.int/ITU-D/treg/Events/Seminars/
GSR/GSR08/discussion_papers/IntlSharing_Singapore_web1.pdf.
———. 2011a. “Guidelines for Submission of Applications for Services-Based
Operator Licence.” IDA, Mapletree Business City, October 13. http://www.ida.
gov.sg/doc/Policies%20and%20Regulation/Policies_and_Regulation_Level2/
SBOLicence/SBOGuide.pdf.
———. 2011b. “Guidelines on Submission of Application for Facilities-Based
Operator Licence.” IDA, Mapletree Business City, June 1. http://www.ida.gov
.sg/doc/Policies%20and%20Regulation/Policies_and_Regulation_Level3/
licensing/FBOGuidelines.pdf.
ITU (International Telecommunication Union). 2004. “Trends in Telecommunications Reform 2004–2005: Licensing in an Era of Convergence.” ITU, Geneva,
December. http://www.itu.int/ITU-D/treg/publications/Trends05_summary
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ITU-D (International Telecommunication Union–Digital). 2009a. “Draft Final
Report on Question 10-2/1: Regulatory Trends for Adapting Licensing
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July 21. http://www.itu.int/ITU-D/treg/Events/Seminars/GSR/GSR09/doc/
STudyGroup_draftreportQ10.pdf.
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———. 2009b. “Understanding Cybercrime: A Guide for Developing Countries.” ICT
Applications and Cybersecurity Division, ITU-D, Geneva, April. http://www.itu
.int/ITU-D/cyb/cybersecurity/docs/itu-understanding-cybercrime-guide.pdf.
Jensen, Mike. n.d. “Promoting the Use of Internet Exchange Points: A Guide to
Policy, Management, and Technical Issues.” Internet Society, Reston, VA.
http://www.isoc.org/internet/issues/docs/promote-ixp-guide.pdf.
Kende, Michael. 2011. “Overview of Recent Changes in the IP Interconnection
Ecosystem.” Analysys Mason, Washington, DC, January 23. http://www
.analysysmason.com/PageFiles/17527/Analysys_Mason_International_IP_
interconnection_23_Feb_2011.pdf.
Kim, Yongsoo, Tim Kelly, and Siddhartha Raja. 2010. “Building Broadband:
Strategies and Policies for the Developing World.” Global Information and
Communication Technologies Department, World Bank, Washington, DC,
January. http://siteresources.worldbank.org/EXTINFORMATIONANDCOMM
UNICATIONANDTECHNOLOGIES/Resources/282822-1208273252769/
Building_broadband.pdf.
Kinetz, Erika. 2010. “India’s 3G Spectrum Auction Raises $14.6 Billion.” Business
Week, May 20. http://www.businessweek.com/ap/financialnews/D9FQCHS80
.htm.
Kravets, David. 2010. “ACTA Draft: No Internet for Copyright Scolaws.” Wired,
March 24. http://www.wired.com/threatlevel/2010/03/terminate-copyrightscolaws/.
Marcus, J. Scott, and Dieter Elixmann. 2008. “The Future of IP Interconnection:
Technical, Economic, and Public Policy Aspects.” Study for the European
Commission, Brussels, January. http://ec.europa.eu/information_society/policy/
ecomm/doc/library/ext_studies/future_ip_intercon/ip_intercon_study_final
.pdf.
Martin, Marc S., Henry L. Judy, and Lauren Bergen Pryor. 2010. “FTC Settles with
Twitter: More Painful Lessons in Basic Data Security.” TMT Law Watch, July 1.
http://www.tmtlawwatch.com/2010/07/articles/ftc-settles-with-twitter-morepainful-lessons-in-basic-data-security/.
McLaughlin, Andrew. 2002. “Internet Exchange Points: Their Importance to
Development of the Internet and Strategies for Their Deployment; the African
Example.” Global Internet Policy Initiative, June 6. http://www.apdip.net/
documents/policy/strategy/gipi06062002.pdf.
Morocco, ANRT (Agence Nationale de Réglementation des Télécommunications).
2011. “Tableau de Bord Marché Internet au Maroc.” Oice of the Prime
Minister, ANRT, March. http://www.anrt.net.ma/fr/admin/download/upload/
file_fr2164.pdf.
Moya, Jared. 2010. “India Mulling ‘Three-Strikes’ Plan of Its Own?” ZeroPaid,
November 16. http://www.zeropaid.com/news/91314/india-mulling-threestrikes-plan-of-its-own/.
NCC (Nigerian Communications Commission). 2010. “Determination on Dominance in Selected Communications Markets in Nigeria.” NCC, Abuja, March 26.
OECD (Organisation for Economic Co-operation and Development). n.d. “OECD
Recommendation on Cross-border Co-operation in the Enforcement of Laws
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Protecting Privacy.” OECD, Paris. http://www.oecd.org/document/14/0,3343
,en_2649_34255_38771516_1_1_1_1,00.html.
Raja, Siddhartha. 2010. “The Impact of Convergence: Top 10 Broadband Providers.” World Bank Blog, July 28. http://blogs.worldbank.org/ic4d/the-impact-ofconvergence-top-10-broadband-providers.
Satola, David, and Henry L. Judy. Forthcoming. “Towards a Dynamic Approach to
Enhancing International Cooperation and Collaboration in Cyber-Security
Legal Frameworks: Reflections on the Proceedings of the Workshop on
Cyber-Security Legal Issues at the 2010 United Nations Internet Governance
Forum.” Vilnius, Lithuania, September 15.
Singh, Rajendra, and Siddhartha Raja. 2010. “Convergence in Information and
Communication Technology: Strategic and Regulatory Considerations.” Global
Information and Communication Technologies Department, World Bank,
Washington, DC. http://siteresources.worldbank.org/EXTINFORMATION
ANDCOMMUNICATIONANDTECHNOLOGIES/Resources/Convergence_
in_ICT.pdf.
Sisario, Ben. 2010. “U.S. Shuts down Web Sites in Piracy Crackdown.” New York
Times, November 26. http://www.nytimes.com/2010/11/27/technology/
27torrent.html.
Stucke, William. 2006. “Regional IXPs: The Need for Regional Interconnection in
Africa.” In Commonwealth Ministers Reference Book 2006. London: Henley
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Tera Consultants and Hogan Lovells. 2010. “Study on the Future of Interconnection
Charging Methods.” Report for the European Commission. Tera Consultants,
Paris, November 23. http://ec.europa.eu/information_society/policy/ecomm/
doc/library/ext_studies/2009_70_mr_final_study_report_F_101123.pdf.
TRAI (Telecommunications Regulatory Authority of India). 2003. “Preliminary
Consultation Paper on Unified Licensing Regime.” TRAI, New Delhi, November
15. http://www.trai.gov.in/WriteReadData/trai/upload/ConsultationPapers/32/
final%20preconsultation%20paper%205%2015th%20nov%202003.pdf.
———. 2007a. “International Telecommunication Access to Essential Facilities at
Cable Landing Stations Regulations.” TRAI, New Delhi, June 7.
———. 2007b. “Recommendations on Infrastructure Sharing.” TRAI, New Delhi,
April. http://www.ictregulationtoolkit.org/en/Publication.3632.html.
United Nations, Human Rights Council. 2011. “Report of the Special Rapporteur on
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Connect America Fund; A National Broadband Plan for Our Future; Establishing Just and Reasonable Rates for Local; Exchange Carriers; High-Cost
Universal Service Support; Developing an Unified Intercarrier Compensation
Regime; Federal-State Joint Board on Universal Service; Lifeline and Link-Up,
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FCC, Washington, DC, February 9. http://www.fcc.gov/Daily_Releases/Daily_
Business/2011/db0209/FCC-11-13A1.pdf.
Law and Regulation for a Broadband World
153
United States, FTC (Federal Trade Commission). 1998. “Solutions for Data Protection and Global Trade: Remarks of FTC Commissioner Mozelle W. Thompson
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———. 2010a. “Federal Trade Commission (FTC) Decision and Order in the Matter
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———. 2010b. “FTC Agreement Containing Consent Order in the Matter of Twitter,
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———. 2010c. “Protecting Consumer Privacy in an Era of Rapid Change.” Preliminary FTC Staf Report, FTC, Washington, DC, December. http://www.ftc.gov/
os/2010/12/101201privacyreport.pdf.
———. 2010d. “Twitter Settles Charges That It Failed to Protect Consumers’ Personal
Information; Company Will Establish Independently Audited Information
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United States, White House, Oice of the Press Secretary. 2004. “Memorandum for
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CHAPTER 4
Extending Universal Broadband
Access and Use
Examples from around the world demonstrate that letting the market work
can go a long way toward achieving widespread broadband access. Most
countries rely primarily on private sector initiatives and investment to
achieve broadband access and use throughout their territories. Yet even in
well-working market environments, some gaps typically remain between
and within countries. Despite declining costs, some locations will not be
commercially viable in the foreseeable future. In places with broadband service, some users will not be able to aford it. Persons with disabilities may
have diiculty using standard equipment. These are some of the situations
where market forces alone are not likely to ensure access to broadband.
When government steps in to fill these gaps, it goes ahead of or beyond the
market. Achieving broadband access ahead of or beyond the market can be
understood as achieving “universal broadband access.”
An important question for the achievement of universal broadband
access relates to the role of governments when market mechanisms alone
do not meet the goals set for broadband access and use. Some degree of government intervention may be required to complement the market and overcome impediments to universal broadband. However, a distinction should
be made between enabling, facilitating, and complementing market developments versus substituting government decisions for market forces and
155
public sector investment for private investment. There is also the question
of whether and to what extent scarce public sector resources, for which
there are many competing demands from other sectors, should be used to
extend broadband ahead of or beyond the market.
Governments have a range of instruments at their disposal to narrow
gaps or accelerate rollout of broadband (see chapters 1 and 3). The choice of
instrument depends on the specific obstacles that the government is trying
to overcome. These obstacles may involve the following:
• A proposed investment may not be commercially viable.
• The cost of doing business in the country may be too high.
• Laws and regulations may not be well suited to facilitate the adoption of
new technologies and business models.
• There may be a lack or shortage of long-term financing (especially in
local currency) commensurate with long economic lives and payback
times of the investments.
• Regulatory and political risk may undermine what otherwise would be
an attractive business proposition.
• Uncertain prospects for market development may pose excessive commercial risk.
This chapter seeks to provide an overview of what policy makers can do
to address perceived shortfalls, to define a broadband development strategy
capable of addressing market failures, and to work toward achieving universal broadband service. It discusses the diferent levels of access that a government strategy may pursue, the role of private-led competitive markets in
achieving these objectives, the role of the government in narrowing or eliminating any gaps between markets and the country’s development needs,
and the design of efective government strategies to meet this challenge.
This chapter then examines the use of fiscal resources to support private
supply of broadband, including choice of instruments, use of subsidies, and
use of mechanisms to collect and disburse funds for subsidy.
Universal Access Strategy
and Broadband Development
The history of information and communication technology (ICT) development in low- and middle-income countries shows that private-led, increasingly competitive markets are highly efective at extending new networks
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and services throughout the population.1 In numerous countries, chronic,
acute telephone service shortages gave way to rapid growth once marketoriented sector reforms were adopted. Mobile phones, initially a premium
voice service, now provide a platform for a wide range of information and
communication services and applications, covering more than 80 percent of
the world’s population. The Internet has been growing even faster.
Each new generation of communication services has difused throughout the population faster than the previous one. Following sector reforms,
the number of wireline telephones per capita took over 30 years to multiply
tenfold, but it is now in decline worldwide. In contrast, the number of
mobile phones took about 12 years to multiply tenfold, and the number of
Internet users took only about eight years (table 4.1).
However, diferences in access to and adoption of wireline and mobile
telephony have remained; the same is also occurring with broadband. Moreover, the private sector often has insuicient interest in investing in broadband in rural and remote areas, even with government incentives. Where
market-oriented sector reform falls short of meeting all development needs,
public sector support for the deployment, ownership, and operation of a
broadband network may be deemed necessary. This may be particularly
true where broadband infrastructure is viewed as an essential public utility
in which the public sector, such as the local government, is responsible for
deployment (ITU 2003, 45).
Thus in each country, policy makers should determine whether private
sector–led broadband development in the context of market-oriented
reform will achieve economic and social goals or whether more direct, targeted government intervention is necessary. Such an approach is reflected
Table 4.1 Information and Communication Services in Low- and
Middle-Income Countries, 1980–2010
Indicator
Population (billions)
Gross national income per capita
(constant 2000 US$)
Wireline phone lines per
100 inhabitants
1980
1990
3.6
4.4
811
912
2000
5.1
1,147
2010
5.8
1,811
1.4
2.7
8.3
12.0
Mobile phones per 100 inhabitants
—
0.9
4.6
70.0
Internet users per 100 inhabitants
—
—
1.5
21.0
Sources: ITU, World Telecommunications/ICT Indicators database; World Bank, ICT At-a-Glance
database.
Note: — = Not available.
Extending Universal Broadband Access and Use
157
in the European Commission’s 2010 Communication on Broadband, which
recognizes that, due to the critical role of broadband Internet access, broadband’s overall benefits to society appear to be much greater than the private
incentives to invest in high-speed networks (European Commission 2010).
As a result, stimulating investment beyond the current market-driven levels
(while taking into account the recent economic downturn) is seen as key to
achieving broadband goals. However, the communication also specifically
recognizes that, where intervention is deemed necessary, it is important to
limit the government’s role as much as possible so as not to distort wellfunctioning market mechanisms or discourage private investment.
Levels of Access
Countries have adopted various strategies to enable and facilitate universal
access to broadband services. Some countries, particularly developed countries with extensive existing wireline penetration, have focused their broadband strategies on providing access to individual users, while other countries
with less well-developed network infrastructure have looked more toward
providing access to communities and key institutions.
Individual Users and Households
Many countries, some of which are discussed in this chapter, have focused
on providing broadband access for individual users and households,
including through the extension of universal service definitions and universal service obligations (USOs). In certain instances, these are developed
countries that implemented policies to facilitate the deployment of extensive infrastructure and ease the path to high broadband penetration.
Therefore, it is more feasible for them to achieve universal broadband by
focusing on individual users and households. Finland, for example, was the
first country in Europe to include broadband Internet access in its definition of “universal service” and to make broadband a legal right for every
citizen.2 Based on an amendment to the Finnish Communications Market
Act,3 FICORA, the Finnish regulator, designated 26 telecommunications
operators as universal service providers. This designation requires such
operators to provide, within their operating area, broadband connectivity
for consumers and business customers at their permanent place of residence or business, with guaranteed connection speeds of at least 1 megabit
per second (Mbit/s).4 Similarly, the Icelandic government required the
country’s incumbent operator to guarantee broadband access to the 1,800
remaining unserved consumers in order to achieve universal broadband
access (BEREC 2010).
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In Denmark, Canada, and Ireland, governments have focused on expanding universal access to households. In June 2010, Denmark announced an
ambitious broadband goal of providing access of at least 100 Mbit/s to all
households and businesses by 2020 (Denmark, National IT and Telecom
Agency 2010). To achieve this goal, the Danish government stated that
it would continue to pursue its market-based and technology-neutral
approach, focusing on the deployment of broadband infrastructure in
Denmark. Measures to promote broadband have included promoting competition in the access network and rolling out wireless broadband to cover
hard-to-reach areas (Petersen n.d.). By the middle of 2009, out of 2.8 million
households, fewer than 9,000 did not have access to a broadband connection, and by the end of 2010, all households had access to a broadband connection of at least a 512 kilobits per second (kbit/s).
Canada’s 2009 Economic Action Plan provided Industry Canada with
Can $225 million over three years to extend broadband coverage, with the
biggest component of this strategy being the Broadband Canada: Connecting Rural Canadians Program. The program sought to extend broadband
service to as many unserved and underserved Canadian households as possible, recognizing that, since communities vary greatly in size, the fact that a
community has broadband access does not always mean that service is
available to individual households.5
Ireland has attempted to ensure nationwide provision of broadband
through its National Broadband Scheme (NBS).6 The NBS was a government project funded under the National Development Plan to provide
broadband coverage to areas in Ireland in which broadband services were
deemed to be insuicient. Under the scheme, users’ connections must
be “always on” and capable of 1 Mbit/s downloads and 128 kilobits per
second (kbit/s) uploads. The lowest possible cap on downloads was defined
as 10 gigabytes (GB) per month, and the connections had to support virtual
private networks and voice over Internet Protocol (VoIP) applications.
Communal and Institutional Access
Providing universal access at the individual user and household levels
may not always be possible, particularly in developing countries or even in
developed countries with significant rural or hard-to-reach areas. As a
result, some countries have opted to give greater attention to communal or
institutional solutions for providing broadband to end users, especially service to unserved or underserved areas. These projects are often funded, at
least in part, by resources from universal service funds (USFs). While traditionally these funds were used primarily or exclusively to support the
deployment of telephony services, they have been expanded to support
Extending Universal Broadband Access and Use
159
broadband deployment. In certain instances, these USFs are aimed at facilitating the supply of broadband services and are often coupled with initiatives focused on generating demand for such services.
For example, in India, the Universal Service Obligation Fund (USOF) is
used to support communal access by providing wireline broadband connectivity to rural and remote areas of the country from the existing rural wireline exchanges of Bharat Sanchar Nigam Limited (BSNL).7 BSNL provides
one kiosk connected to each designated rural exchange, and the connectivity is subsidized by the USOF. The kiosk maintains a workstation with facilities to provide Internet browsing and support other broadband applications
such as video chat, video conferencing, telemedicine, and online learning.
Similarly, in Jamaica, the Universal Access Fund (UAF) Company was
established in 2005 to accelerate the deployment of broadband through
public access in high schools, public libraries, post oices, and other government agencies or institutions. In April 2011, the UAF Company funded a
J$543 million (US$6.37 million) project with telecommunications companies LIME (Cable and Wireless) and FLOW (Columbus Communications)
to build out a high-speed, islandwide broadband network, again focusing on
all secondary schools, post oices, and public libraries in Jamaica.8
Some countries take a hybrid approach by establishing a general universal access plan focused on connecting individuals or households while also
targeting access at the community level. For example, the U.S. National
Broadband Plan (NBP) generally seeks to ensure afordable access to at least
100 million U.S. households with 100 Mbit/s or more download speed and
50 Mbit/s or more upload speed by 2020 (United States, FCC 2010a). The
NBP additionally seeks to ensure that every U.S. community has afordable
broadband Internet access at speeds of at least 1 gigabits per second (Gbit/s),
highlighting the importance of having institutions (such as schools, libraries, and health clinics) both serve as anchors for these local communities
and deliver digital literacy, job training, continuing education, and entrepreneurship programs with support from government funds.
Universal Broadband Targets within the Broadband Strategy
Achieving universal broadband access is a challenge for all countries. In the
case of developing economies, broadband is also seen as a key component of
fostering growth and supporting the provision of a range of services to rural
regions. To this end, countries are defining more comprehensive universal
access and service (UAS) strategies and aiming to set universal broadband
targets in the context of the country’s UAS and overall development strategies. As detailed in box 4.1, the Dominican Republic’s e-Dominicana Strategy
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Box 4.1: Rural Broadband Connectivity in the Dominican Republic
Since 2004, one of Indotel’s primary efforts
in promoting broadband and the use of computers has been directed toward installing
local community informatics training centers
(centros de capacitación en informática,
CCIs) and supplying them with computers.
Indotel also provides the entire technical
infrastructure including hardware, software,
and a backup electric supply system. By
January 2009, more than 867 CCIs were in
operation, and 462 were in the process of
being created.
In 2007, Indotel also launched the Rural
Broadband Connectivity project as part of
the e-Dominicana Strategy. The project’s
objective is to provide 508 unserved municipalities with residential and public telephones as well as broadband Internet access
through Internet cafés. This is in line with the
overall goals of the e-Dominicana Strategy,
which include (a) providing Internet access
within 5 kilometers of all households at
speeds of at least 128 kbit/s; (b) reaching an
Internet penetration rate of 40 percent of the
population, with at least 30 percent with
Internet access speeds of 128 kbit/s or more;
and (c) ensuring that at least 50 percent of
the population has access to a personal computer. Indotel has funded the cost of these
projects with resources from its USF.
Source: Adapted from San Román 2009.
focuses on the long-term promotion of universal access to ICTs, with the
objective of ensuring that the country’s population develops the necessary
skills to use ICTs through the creation of conditions, such as the availability
of ICT resources and infrastructure at a reasonable distance from the place
of residence and at afordable price levels.9 The strategy also puts particular
emphasis on the link between the development of ICTs, long-term economic growth, and the development of human capital (ITU 2008). In the
United States, the NBP advocates an expanded funding commitment to the
Community Connect Program, which provides free Internet access to residents with the goal of facilitating economic development and enhancing
educational and health care opportunities in rural communities. The European Commission, in line with the European Union’s common interests of
territorial, social, and economic cohesion, has indicated its support for state
financial resources to assist in providing broadband services to those areas
currently unserved and where private investors do not have plans to deploy
broadband networks in the near future (European Commission 2009).
As these examples show, it is becoming increasingly important for UAS
policies and broadband policies to influence each other.10 UAS policies can
promote the spread of broadband services and stimulate demand. Broadband policies can use a range of regulatory and fiscal options to reduce costs
Extending Universal Broadband Access and Use
161
(for example, international gateway liberalization) and facilitate broadband
network investment, which, in turn, leads to better access at lower prices.
Although several countries have separate broadband and UAS policies
(India, Jordan, Malaysia, Pakistan, and South Africa), the boundaries
between UAS and broadband policy are not as clear in other countries.
Recent trends, however, show that policy makers are increasingly merging
the two topics to accommodate universal broadband challenges. UAS and
universal broadband availability have become fundamentally linked in
nearly all countries’ universal access strategies, except in least developed
countries (Dymond 2010). As shown in box 4.2, Chile has a new Information
Box 4.2: Chile’s Digital Connectivity Plan
In 2010, the Chilean government launched a
program to provide digital connectivity to
1,474 localities with about 3 million people in
rural areas that lack access to the Internet.
Households, businesses, schools, health
centers, and government offices will be able
to connect to the Internet at 1 Mbit/s download and 512 kbit/s upload speeds, with service quality and prices similar to those prevailing in larger towns. The objective is to
enable rural communities with productive
potential to participate more effectively in the
economy, through innovation and increased
competitiveness. The program also seeks to
increase the reach of the Internet among lowincome rural population groups. The program
will invest about US$100 million, including a
US$43 million subsidy financed equally by the
central government’s Fondo de Desarrollo de
las Telecomunicaciones and the regional governments. Locations were selected based on
demand expressed by local and regional
authorities and civil society organizations and
also reflect development priorities in agriculture, small and medium enterprises, and
tourism. Costs were estimated with an
engineering model using combinations of
fiber and wireless technologies, including
investment and operation and maintenance
costs. Benefits reflected forecast revenues,
business productivity gains, and benefits
from e-government. This model underestimated total benefits, as the impact on
education, employment, and other externalities, while recognized, could not be quantified in monetary terms. Nonetheless, the
program was estimated to yield a small, but
positive, economic net present value (NPV).
The maximum subsidy was set at the equivalent of US$63 million, which would make the
financial NPV = 0, rendering the program
commercially viable. The actual subsidy
needed was determined through open competitive bidding, with the eventual winning
bid at US$43 million. Implementation is
under way and due for completion in 2012.
Sources: Chile, SUBTEL 2008; see also Acta de Apertura de los Proyectos Financieros (Sobres S4) para la Asignación del Proyecto Infraestructura Digital para la Competitividad e Innovación and Proyecto Bicentenario, Red
Internet Rural: Todo Chile Comunicado, both at http://www.subtel.cl; infoDev and ITU, “ICT Regulation Toolkit,
Module 4: Universal Access and Service,” sec. 4.1.3, Relationship to Broadband Policy, http://www.ictregulation
toolkit.org/en/Section.3258.html.
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Society Universal Access Policy. The new policy brings together Chile’s
broadband policy and the Universal Access and Service Fund (UASF) and
seeks to enable rural communities with productive potential to participate more efectively in the economy through innovation and increased
competitiveness.
A universal broadband policy should be a central part of the ICT framework and not construed as simply a result of corporate social responsibility
or acts of “goodwill” by investors in the ICT sector. Policies and measures
should be formulated carefully, and universal broadband policies should be
given a proper space in the national policy and legislative frameworks for
development as well as in the institutional framework for telecommunications regulation. Thus it is important not only to set universal broadband
targets in the context of the country’s UAS policy, but also to take account of
the country’s overall development strategy. Universal broadband targets
should be developed based on the country’s short- and long-term goals for
economic growth and broadband deployment. Development policies (for
example, e-education) should also consider telecommunications-specific
regulations and policy goals, such as competitive parity between players
(Atkinson, Correa, and Hedlund 2008, 19).
As illustrated in a World Bank study on the Republic of Korea, a key factor in achieving widespread broadband access was the country’s holistic
approach to defining and implementing numerous policy developments and
initiatives, including policies to promote universal access to broadband. The
Korean government has sought to promote ICTs, particularly broadband
networks and services, by implementing a series of “master plans” that
extend over several years and provide strategic, long-term development
frameworks. Each framework has set out overarching policy objectives as
well as the supporting policies to achieve these goals. Among the key elements taken into consideration were the policies promoting universal access
to broadband (Kim, Kelly, and Raja 2010, 20–21).
Mechanisms to Drive Universal
Broadband Access
Government Intervention
In many cases, broadband infrastructure projects are being led by the
private sector, with the government’s role focused on developing policies to encourage and facilitate these private sector initiatives. Within
this context, countries have recently adopted more integrated strategies
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for developing and financing telecommunications services. This is particularly true in the case of universal access and the financing of
large infrastructure projects, including projects to fund broadband, since
implementation of such projects has generally been seen to require the
involvement of both private sector financing and public authorities.
Policy makers have moved toward creating a multipronged approach to
promoting universal broadband access. Such complementary strategies
have been defined in addition to market liberalization and regulatory initiatives aimed at promoting broadband in general as well as focusing on universal access obligations or special conditions that favor projects in high-cost
or low-income areas. Table 4.2 shows some of the mechanisms defined as
part of the Philippine’s UAS strategy.
Other countries also have introduced a mix of measures to promote universal broadband access:
• Canada. While the Telecommunications Act of 1993 clearly recognizes
the role of the private sector, it also calls for “reliable and afordable
telecommunications services of high quality accessible to Canadians in
both urban and rural areas in all regions of Canada.” In reality, policy
makers recognize that the high cost of rural and remote broadband
access requires public sector funding and initiatives to supplement
market forces.11
Table 4.2 The Multipronged Universal Access and Service Strategy
in the Philippines
Strategy
1. Implement improved
regulations
Details
• Key is spectrum and tower sharing
• Will improve market efficiency
• Increased broadband rollout and extended
coverage into rural areas due to reduced costs
2. Stimulate demand
(households and
government)
• Key is household personal computer loan
program and government demand aggregation
• Will stimulate market
• Increased broadband rollout and extended
coverage into rural areas due to more demand
3. Universal Access and
Service Fund and
competitive subsidy bids
(for residual)
• Key is public Internet access and connectivity
• Will address the access gap
• Increased broadband rollout and extended
coverage into rural areas due to subsidies
Source: Taken from Beschorner 2010.
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• Finland. The government’s approach has relied on market competition to
drive growth. Limited public financial intervention, however, has been
implemented since 2004, when the first national broadband strategy to
achieve universal broadband access was articulated. The strategy provided that broadband access in sparsely populated and rural areas should
be supported by structural funds from the European Union (EU) and the
national government. Since then, it has been adapted and allows for
public sector intervention when necessary. The main objective of the
December 2008 national broadband scheme for 2009–15 was to ensure
that more than 99 percent of the population in permanent places of
residence, as well as businesses and public administration oices, are no
farther than 2 kilometers from a 100 Mbit/s fiber optic or cable network.
The government expects telecommunications operators to increase the
rate of coverage to 94 percent by 2015, depending on market conditions,
while public finances are being used to extend services to sparsely
populated areas where commercial projects may not be viable, bringing
coverage to the target of 99 percent.12
• Peru. Following privatization of the state telecommunications enterprises in 1994 and opening of the market to new entrants and competition in 1999, Peru’s telecommunications sector progressed dramatically
from being the second least developed in Latin America to about average for the region. The government also played an important role in
extending telecommunications services to places where they are not
commercially viable. The Fondo de Inversión en Telecomunicaciones
(FITEL, Telecommunications Investment Fund) finances the provision
of telecommunications services in rural and other priority development
areas that do not have service. As shown in box 4.3, the experience of
FITEL in Peru suggests several lessons that are widely applicable to
broadband development.
Government intervention is not just limited to the national level. Some
countries have recognized that municipal and local governments often possess the technical expertise to deploy networks as well as the ability to
engage in long-term financing strategies for building out infrastructure
(OECD 2008). In the United Kingdom, the government is taking a new
approach to delivering connectivity in rural and hard-to-reach areas where
the market is unlikely to provide service. Where local authorities have designated superfast broadband as a development priority, Broadband Delivery
U.K. will work with the local government to coordinate projects and financing. Such collaboration will be the foundation for the government’s
US$859 million commitment until 2015 (United Kingdom, Department for
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Box 4.3: Broadband Development in Remote and Underserved
Locations: Lessons from Peru
In Peru, the government has played an
important role in extending telecommunications services to places where they are not
commercially viable on their own. Several
lessons from the experience of Peru are
widely applicable to broadband development.
With a pro-competitive regulatory framework, the market on its own goes a long
way toward rolling out broadband, but gaps
are likely to develop between the more profitable areas and the rest of the country and
among income groups. In this situation, a
telecommunications development fund can
accelerate rollout and reach by leveraging
private investment, focusing subsidies on
clearly defined target population groups,
and using the market to determine and allocate subsidies.
The private sector and the communities
themselves respond vigorously to the
opportunities presented by new technologies and demands. In Peru’s rural areas,
some of the most creative initiatives to use
wireless technologies came from agricultural associations, local communities, and
small entrepreneurs, rather than from established telecommunications companies. In
urban areas, intense competition among
numerous small informal shops offering public Internet access resulted in the number of
Internet users rising quickly—well above
what could have been expected with regard
to the number of servers and connections.
This contributed to widespread dissemination of ICT throughout the population.
For new infrastructures and services to
contribute to development, it is also neces-
sary to support the demand side. The
national broadband project, financed by
FITEL, includes developing content and
building capacity among users and local
entrepreneurs. Operators are expected to
establish a portal in each community, with
information on economic activities, tourist
attractions, and other material of local significance. The content will be updated by the
community itself, with support from the
operators. Funding for these activities, however, remains very limited.
A national broadband policy is needed
to guide the scope and direction of efforts
to extend new services ahead of or beyond
the market. For many years, FITEL lacked
such guidance. The choice of services to
be supported, target population, and technical requirements were reasonable and
generally responsive to changing technologies and demands, but appeared to lack
consistency. For example, the required
Internet speed varied among projects
between 9.6 kbit/s and over 600 kbit/s.
A commission to propose a national
broadband policy aimed at achieving
affordable access countrywide was established in 2010.
A funding mechanism that allows collecting mandatory contributions and only later
decides how to use them tends to disburse
funds slowly and inefficiently. Between
1995 and 2008, FITEL spent slightly over
40 percent of the US$279 million it had collected. At some point, it had about US$100
million in cash. For five years, no new investments were approved. Partly this reflected
(continued)
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Box 4.3 continued
lower-than-expected requests for subsidies
by the bidders. Slow processing through the
public administration procurement system
may have contributed as well. Changes in
legal and administrative rules in 2006 helped
the effort to move forward more expeditiously, while emphasizing a transparent and
competitive framework.
Sources: “Perú superaría el millón de conexiones Internet de banda ancha a fines de 2010,” America Economía,
July 14, 2010, http://www.americaeconomia.com; Bossio and Bonifaz 2006; FITEL, http://fitel.gob.pe; León 2009;
World Bank, ICT At-a-Glance database: Peru, http://devdata.worldbank.org/ict/per_ict.pdf.
Business, Innovation, and Skills and Department for Culture, Media, and
Sport 2010). The French government has also given local authorities a
greater role in developing broadband infrastructure. The Caisse des Depots
et Consignations (a government-owned bank) provides concessional loans
to municipalities for broadband development.
Improve the Legal, Regulatory, and Business Environments
Address Universal Access and Service Challenges through
Policy and Regulatory Solutions
Before making public investments in rolling out broadband networks, governments should first look at regulatory tools that might be able to increase
entry and competition and hence maximize what the market can deliver on
its own, including in unserved and underserved areas. Whereas a more “traditional” framework would likely impose universal service obligations on
designated operators as a first-step measure, governments should consider
focusing on policies and regulatory tools that incentivize and encourage
operators to extend service into underserved and unserved areas, including
through increased privatization and liberalization (European Commission
and ITU 2011).
In establishing the framework necessary to provide universal broadband access and service to rural populations, policy makers are introducing licensing regimes that will allow them the flexibility to take
advantage of technological development and convergence. Operators are
also expressing a preference for alternatives, such as accepting reasonable
build-out targets in their licenses or negotiating ex ante specific rural UAS
targets with the regulator in exchange for relief from UASF levies or taxes.
Countries have thus adapted their licensing regimes to achieve such
targets. In Brazil, for example, Anatel established licensing provisions
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allowing operators to obtain additional authorizations after they fulfilled
their universal service obligations.13 Brazil Telecom, which met its USOs
by 2004, was granted the right to roll out additional mobile and long-distance call services in southern areas where it previously only was licensed
to provide local services. In addition, Anatel is now pursuing broadband
UAS targets, planning to connect all of its 5,600 municipalities with minimum broadband capacity, as well as creating and connecting 8,500 telecenters and 50,000 urban schools.
Within the context of defining a universal broadband strategy, it is also
important to consider what other key legal, regulatory, and business
environment constraints are holding back universal broadband development and what government can do to overcome these constraints. If governments are to provide support to encourage the universal deployment
of broadband, they should do so in a manner that guarantees equitable
access for all.
In Sweden, for example, government policies require recipients of public
funds to operate open-access networks. Promoting such nondiscriminatory
access might come more readily from municipal governments, many of
which own and operate local networks. The Czech Republic has implemented legislation aimed at enabling the government to capitalize on the
privatization of Český Telecom by putting 1 percent of the proceeds from
the privatization into a fund that will be used to co-finance infrastructure
projects for metropolitan and local networks. Conditions on receiving the
funds include participation by the relevant regions and operation of the network under open-access rules.
Revise the Scope of Universal Access and Service
to Include Broadband
In many countries, the scope of UAS policies as a whole has traditionally
focused on the provision of basic telephony, either to individual households
or through communal or institutional access. As stated in a 2010 World
Bank study, however, the availability of new, less expensive technologies
allows countries to adopt more ambitious UAS policies while avoiding
higher costs and the need to engage in continuous subsidies (MuenteKunigami and Navas-Sabater 2010, 7).
In order to expand broadband connections to rural areas where they are
currently unavailable, some countries are considering turning broadband
into a USO and reforming their universal service policies. In numerous
countries, the scope of UAS has evolved to include broadband. According
the International Telecommunication Union (ITU), over 40 countries
now include broadband in their universal service or universal access
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definitions.14 The following are some of the countries that have revised the
scope of their universal service policies and USFs to include broadband:
• India was one of the first countries to include broadband in the USOF in
2006. The USOF allows for the support of broadband connectivity and
mobile services in rural and remote areas of the country.
• In Morocco, the USF’s priorities were expanded through a revision of the
law in 2004 to include rural public telephony, installation of community
Internet centers, and an increase in broadband capacity through various
programs.15
• In Switzerland, the government decided that, beginning in January 1,
2008, universal service providers must provide a broadband connection
to the whole population, via digital subscriber line (DSL), satellite, or
other technologies. Connections must ofer at least 600 kbit/s download
speeds and 100 kbit/s upload speeds, and the monthly subscription cannot be more than SW F 69 (US$85).
Support Private Sector Network Build-Out: Supply
Governments may adopt a range of instruments to accelerate the supply of
broadband ahead of or beyond the market. These can include subsidies for
investment, equity in public-private partnerships (PPPs), facilitated access
to rights-of-way, preferential tax treatment, long-term loans for investment
in local currency, on-lending loans, credits or grants from international
development organizations, and guarantees to ofset regulatory or political
risk. Implementation of such policies can encourage operators to focus on
deploying networks and services in unserved areas since they will be able
to earn a higher rate of return on their investments over the long term
(World Bank 2005).
The most common practice is for the government to contribute money
when needed to ensure that important investments in rural development
are commercially viable. This is done primarily by providing one-of subsidies for investment and start-up, focusing on unserved and underserved
areas in particular. Alternatively, governments can contribute equity to
PPPs with similar objectives. For example, the government can help to build
broadband backbone networks that are then made accessible in equal terms
to all interested downstream providers. When well designed, these practices can mobilize substantial private sector investment, enable large projects that otherwise would not materialize, contain the cost and risk borne
by the government, and jump-start sustainable markets from which the government can exit quickly.
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It may be possible to reduce the cost of broadband development by giving
investors access to rights-of-way along railways or roads, on rooftops, and
on other public property. Absent alternative uses for these rights-of-way,
their opportunity cost to the public is negligible, and if they are made equally
available to all interested parties, their use will not distort competition.
Therefore, granting rights-of-way may help to reduce the total investment
cost of broadband development.
Granting exceptional tax treatment is also sometimes considered.
Good tax practice in general suggests that a particular economic activity
should not be singled out for tax conditions that do not apply to all like
activities throughout the economy. This means that taxes or duties that
apply only to broadband should be phased out and, conversely, that
exemptions from generally applicable obligations should be avoided. The
Hungarian government, for example, took eforts to institute tax incentives
to further the build-out of broadband. Specifically, Hungary’s government
grants a tax reduction of 50 percent on profits as a way to support the
construction of broadband infrastructure. The concessions are available
only to telecommunications companies if their expected profits exceed
Ft 50 million (US$250,000) and if they have invested at least Ft 100 million
(US$500,000). The tax allowance cannot be applied to Internet service
providers (ISPs) if the infrastructure is built in areas where Internet service is already provided or where the investment does not contribute to
the growth of infrastructure.
Investment in new open and competitive networks, including broadband networks, can also be supported by the actions of national and local
authorities in lowering costs. The European Commission’s 2009 Guidelines
on the Application of State Aid Rules, for example, lay down the conditions
for public financial support on nonmarket terms for broadband deployment in areas where commercial investments are unlikely to take place in
the foreseeable future. The main objective of the 2009 guidelines is to assist
the actions of national and local authorities. The guidelines are presented
as part of the broadband package, together with the two other broadband
commitments made by the commission in the Digital Agenda for fast and
ultra-fast Internet: the Next-Generation Access (NGA) Recommendation
to provide regulatory guidance to national regulators and the Radio Spectrum Policy Program to improve the coordination and management of
spectrum and hence facilitate, among other things, the growth of wireless
broadband. In the guidelines, the commission recognizes that broadband
networks tend to cover only part of the population since they are generally
more profitable to roll out where potential demand is higher and concentrated (that is, in densely populated areas) rather than in areas with less
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population, specifically because of the high fixed costs of investment and
high unit costs. The commission distinguishes acceptability of state intervention among (a) areas where no broadband infrastructure exists or is
unlikely to be developed in the near term and where support is considered
to promote territorial social and economic cohesion and address market
failures (so-called white areas); (b) areas where market failure or a lack of
cohesion may exist despite the existence of a network operator, thus requiring a more detailed analysis and careful compatibility assessment prior to
allowing state intervention; and (c) so-called black zones, which are defined
as a given geographic zone where at least two broadband network providers are present and broadband services are provided under competitive
conditions (facilities-based competition). In these black zones, the commission does not consider that there is a market failure, so there is little
scope for state intervention. In the absence of a clearly demonstrated market failure, state funding for the rollout of an additional broadband infrastructure is not available.
Instruments of Fiscal Support
for Universal Broadband Access
Subsidies as an Instrument of Fiscal Support
Subsidies are the most commonly used instrument to support universal
broadband development ahead of or beyond the market.16 Subsidies are
used extensively in the telecommunications, electricity, transportation,
water supply, and sanitation sectors. If well designed, subsidies can be
accurate and transparent and can efectively target the desired beneficiaries. Subsidies may be financed by government budgets, user surcharges, international grants, and other sources. A central agency or
financial institution, a specialized fund, or some other mechanism may be
used to collect and distribute the subsidies.
The Rationale for Subsidies
Generally speaking, a subsidy exists when the costs incurred in supplying a
service are not fully recovered from the revenues raised by selling this service. The economic rationale for a subsidy is based on the existence of consumption and production externalities, network externalities, and scale
economies. Also, access to service at afordable prices may be considered
essential for enabling the population to participate equitably and efectively
in the modern economy.
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In the context of market-oriented economic policies, subsidies are aimed
at developing sustainable markets for the private provision of services. They
are designed to turn investments that are desirable from the viewpoint of
the economy at-large, but not profitable by themselves, into commercially
viable undertakings. Projects that are not demonstrably good for the economy at-large or likely to stand on their own do not justify subsidy and are
rarely undertaken.
Good Subsidy Practice
Good subsidy practice in infrastructure projects commits all participants to
contribute to financing the provision of services:
• Service providers invest and risk their own resources to set up the
facilities and provide the services during a given time under specific
conditions.
• The government helps service providers to meet some of their investment and start-up costs.17
• Customers pay for the use of services at least as much as is needed to
meet operating and maintenance costs. Where domestic installations are
involved, customers are also required to pay part of the investment cost,
as a confirmation of demand for service and commitment.
The design of subsidies is closely tied to the available service delivery
mechanisms. Subsidies are channeled through the service supply chain in
ways that aim at being neutral with respect to competition, service providers, service options, and technologies.
Competition for Subsidies
Subsidies for broadband development are increasingly being determined
and allocated among firms participating in a competitive public tender that
is awarded to the firm that bids the least subsidy. This modality is sometimes referred to as “least-cost subsidies.” Compared with traditional public
sector funding of investments, least-cost subsidies result in lower cost to the
government, mobilization of substantial private investment, and enhanced
transparency. Other forms of competition for subsidies include competition
among projects proposed by communities or firms, competition among
regional governments for central funds, and competition among sectors for
a share of these funds. Implicit in all modalities is competition among technologies and business models for delivering these services.
Competition among firms for least-cost subsidies to provide infrastructure services was pioneered in Chile in the mid-1990s for the provision of
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rural pay phones. Since then, it has become a recognized good practice in
telecommunications and has also spread among upper-middle-income
countries and services that appeal most to private investors (telecommunications, electricity) and to lower-income countries and less attractive services (water and sanitation, transportation).
Competition among firms for subsidies is increasingly being used to support broadband development programs and comprises the following main
steps:
• The government defines the broad objectives, target population, and levels of funding of the subsidy program. It also establishes key service conditions such as service quality, maximum prices, and duration of service
commitments (see the experience of Mongolia in box 4.4).
• Specific service needs and choices are identified primarily by prospective
beneficiaries and communities. Economic, financial, and technical analysis is used to select and prioritize projects that are likely to be desirable
from the viewpoint of the economy at-large, but not to be commercially
Box 4.4: Universal Service Subsidies in Mongolia
With the lowest population density in the
world, Mongolia launched two pilot programs
in 2006: one to provide public access telephones for nomadic herders in 27 communities, the other to extend wireless Internet and
voice service to one soum (rural administration center). For these pilots to be commercially viable, estimated subsidies of US$5,100
to US$6,200 would be needed for the herder
community and US$63,000 to US$73,400 for
the soum. Mongolia’s regulatory authority
conducted separate competitive bidding processes for each pilot. Each request for proposals specified the maximum allowable subsidy and included a draft service agreement,
which specified how the subsidies would be
paid out—linked to progress on construction
and initial operation. Bidders were required to
submit evidence of corporate and financial
qualifications and experience in Mongolia.
The bids were evaluated first on technical and
operating compliance with the specifications.
Those bids that passed were then evaluated
on their requested subsidies. The bidder
requesting the lowest subsidy was awarded
the subsidy. Each tender attracted two bids
from operators already active in the target
markets. Three of the four were in substantial
compliance. The networks in both pilots were
implemented in September–November 2006
and were fully operational before the onset of
the winter. Both operators met targets for
service availability and technical quality ahead
of schedule.
Source: Dymond, Oestmann, and McConnell 2008.
Extending Universal Broadband Access and Use
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viable on their own, and to determine the maximum subsidy justified for
each project.
• Private firms submit competitive bids for these projects. Subject to meeting service conditions and complying with rules that apply to all bidders,
bidders are free to develop their business strategies, including choice of
technology.
• Subsidies are awarded to the bidders that require the lowest one-time
subsidies. Alternatively, bids are invited for fixed amounts of subsidies
and awarded against other quantifiable measures, such as the lowest
price to end users or the fastest rollout of service.
• Subsidies are paid in full or in installments, linked to implementation of
investments and start of service.
• Service providers own the facilities and bear all construction and commercial risks. No additional subsidies are available downstream for the
same services.
• The government monitors and enforces service quality and pricing standards, protects users against arbitrary changes of service, and provides
investors with stable rules of the game.
Success Factors of Competition for Subsidies
Competition among firms for subsidies can be used to extend broadband
development ahead of or beyond the market. Compared with traditional
public sector infrastructure funding, competition among firms for subsidies
can mobilize private investment, reduce government outlays to meet given
policy objectives, promote cost-efective solutions and the emergence of
new entrepreneurs, and enhance transparency.
But competition among firms for subsidies is likely to succeed only when
certain critical factors are present. These factors relate to demand, supply,
and the enabling environment. The experience from telecommunications
and other infrastructure service sectors is likely to be relevant to broadband as well (table 4.3). Individual situations can be examined initially by
reference to these factors. Whether the factors of success are in place or not
can only be assessed case by case. A simple classification of countries and
broadband projects cannot do justice to the complexity of the issues.
The demand side. Competition for subsidies to extend broadband ahead
of or beyond the market is likely to work well only if users are willing to
pay at least as much as is needed to keep the service running after initial
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Table 4.3 Competition among Firms for Subsidies: Factors Critical to Success
Demand factors
Supply factors
Enabling environment
• Users are able
and willing to pay
for services.
• Several firms are • Elements of a market-oriented legal
qualified to bid
and regulatory framework are in
for subsidies.
place.
• Service features
are tailored to
user needs and
preferences.
• Business
opportunities
are aligned with
operators’
strategies.
• Government has access to stable
and reliable sources of subsidy
finance.
• Project components are
cost-effectively
packaged.
• Donors and different tiers of
government are able to coordinate
financing policies.
• Services have
considerable
growth potential.
• Private investors have access to
long-term financing.
• Institutional capacity is in place to
implement and manage a competitive subsidy mechanism.
Source: Adapted from Wellenius, Foster, and Calvo 2004.
investment and start-up. There is ample evidence that even low-income
users, given the opportunity, spend a significant part of their income on
communication services. In developing countries, about 10 to 20 percent of
rural household income is spent on infrastructure services (for example,
communications, electricity, water, and transportation).18 In some countries
in Africa, rural households spend over 5 percent of their income on telecommunications. A survey in Nigeria found that about 7 percent of household
income was spent on mobile telephone service.19 These levels of expenditure on communication may suice for the provision of communal
broadband facilities (which aggregate the local population’s purchasing
capacity) even in very poor localities, but the income threshold will be
higher for individual household connections. For competition for subsidies
to achieve its intended purposes, broadband service targets must be consistent with realistic estimates of the users’ willingness to pay.
Besides income, other factors influence the demand for rural infrastructure services. These factors include location, information on options, ease of
use and payment, and reliability of communal services as well as hassle-free
connection, low fixed periodic charges, easy control of expenditures, accurate billing, and prompt repair of household connections. Demand growth
potential is a major determinant of sustainability. For example, some companies that provided subsidized rural pay phones in Chile also ofered individual telephone lines and Internet access to homes and small businesses on
commercial terms using the subsidized infrastructure at marginal cost.
Extending Universal Broadband Access and Use
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The supply side. The primary concern on the supply side is having enough
qualified providers competing for the subsidies. Competition for subsidies
works best when several firms compete for each subsidized project. In such
situations, the lowest-subsidy bid is typically between one-third and half the
maximum available, with occasional zero-subsidy bids. When there is only
one bidder for a project, bids tend to be close to the maximum subsidy available. In that situation, the subsidy awarded is determined by the calculus of
costs and benefits used to design the bidding process more than by the market, and errors of calculus become errors of investment.
The number of prospective bidders depends partly on how well the
market for communication infrastructure services is already developed in
the country. Whether eligible firms actually bid for the subsidies depends
on the extent to which the projects ofer attractive business opportunities
that fit the firms’ overall business strategies. For example, ENTEL-Chile,
one of the largest Chilean telecommunications companies, did not regard
rural telephone service as a strategic business interest and never bid for the
subsidies being ofered from 1995 to 2000, despite the competitive advantage of its countrywide network and substantial presence in rural areas. Yet
the same firm in 2008 bid for subsidies to roll out broadband, came in second, and eventually agreed to take on the project after the winner (which
had requested zero subsidy) failed to firm up financing. An insuicient
number of bidders may also result from lack of confidence in the regulatory
regime, entry limitations still in place from earlier times (for example, only
one company authorized per region), or a process that is competitive in its
initial rounds but ends up with providers consolidating their markets on a
regional basis.
There is still debate over the merits of ofering exclusive operating rights
to enhance the value of a business opportunity ofered in an otherwise procompetitive market environment. Exclusivity is generally no longer granted
for the provision of telecommunications services, but the practice is mixed
in other sectors. Exclusivity, besides running against market-oriented
reform principles, is unlikely to add value to concessions or licenses in markets that operators are not prepared to serve on their own. Exclusive rights
to subsidy, in contrast, make sense since the objective of the subsidy program is to extend service where none is available rather than to promote
competition in the market. Subsidizing demand rather than supply can reconcile both objectives.
How demand is aggregated into projects and the extent to which this
is left to individual bidders may afect considerably their ability to compete. Bundling the provision of several infrastructure services may help
to spread out costs and attract more bidders.20 A bidding process that is
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simple, transparent, expeditious, and not unduly burdensome on the bidders also contributes to attracting bidders.
The environment. Competition for subsidies among firms is designed to be
used to narrow gaps between the market and development needs, not to
substitute for the market or to compensate for regulatory distortions of the
market. It makes practical sense only when the private sector is responsible
for service provision, new entry and competition are encouraged, and crosssubsidies within firms have been largely phased out. A clear, stable, and
credible legal, regulatory, and general business framework is needed for
prospective service providers to make reasonable estimates of costs and
revenues and assess the risks they are being asked to assume. Service providers are especially concerned about the rules and practices with regard to
competition, pricing, interconnection, and access to scarce resources within
the sector as well as with regard to private ownership, foreign exchange,
and taxation of businesses in general.
Competition for subsidies also requires that all key players have access
to financing. A major aspect of qualifying firms to bid for subsidies is their
capacity to mobilize equity and debt financing for the components of
investment and start-up that are not subsidized. This is not likely to be a
problem when programs are large enough to be attractive to foreign investors, who have access to long-term financing in the international markets.
However, smaller-scale schemes targeted primarily at local operators may
face diiculties if longer-term financing is not available through the domestic capital markets.
The government must have in place sustainable sources and transparent mechanisms to collect money for and disburse the subsidies it is
ofering. In the telecommunications sector, the revenues often come from
levies on sector revenues or sometimes from the proceeds of spectrum or
operating license auctions. Funding within the sector, although second
best to funding from the government in terms of economic eiciency,
fairness, and fiscal discipline, can improve the reliability of access to subsidy resources. Governance of subsidy resources is critical. Even where
sector funds have been established, in some instances the resources
remaining have not been disbursed or have been diverted to meeting
pressing fiscal needs.
A key challenge in implementing rural infrastructure delivery models
based on competition for subsidy is coordinating strategies among donors
and among diferent tiers of government. A concession of a private operator,
premised on a partial investment subsidy and a financially self-sustaining
operation over the medium term, would be destroyed if, within a couple of
Extending Universal Broadband Access and Use
177
years, a local municipality or a nongovernmental organization started to
ofer a free service in the same geographic area.
Institutional capacity is needed to establish and run a competitive subsidy system for rural infrastructure services. This includes originating and
shepherding specific legislation and regulations, setting up and managing the financing mechanisms, designing and implementing the bidding
processes, monitoring service development, and enforcing service commitments. In countries with well-established public administration traditions, a well-designed program of competition among firms for rural
subsidies can be implemented by a rather small team of professional and
support personnel.
Long-term sustainability of the model will depend on how well and realistically the risks have been apportioned among the players and the extent
to which commitments can be enforced. Since subsidies are paid early in the
project life cycle, should expected revenue streams later fail to materialize,
the operator may face a sustained negative cash flow and prefer to close
down. Service obligations and penalties for noncompliance may deter such
behavior in some cases. Ultimately, even if construction and commercial
risks are initially assumed entirely by the private operators, if they fail, the
government may have no choice but to step in and take measures to maintain service, since that was its objective in the first place.
Sources of Funds to Support Broadband Development
Government Programs
Because extending broadband ahead of and beyond the market is intended
to benefit society at large, for reasons of both economic eiciency and equity,
the first choice for financing support is the government budget. This can be
done at diferent levels of government, such as central, state, or municipal
governments. It may include direct use of funds from the government budgets or use of funds from government programs aimed at addressing specific
economic or regional development objectives.
For example, in 2002 the federal government of Canada launched the
Broadband Rural and Northern Development Pilot (BRAND) to extend
broadband to about 400 unserved localities, with priority given to disadvantaged First Nation, Inuit, and Métis communities.21 BRAND was
implemented by Industry Canada. The total cost of BRAND was Can
$174 million, of which Can $78 million (44.7 percent) was financed from
Industry Canada’s budget. The rest was financed mainly by the firms
that provided the services, community leaders, provincial and municipal
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governments, and other federal and provincial programs. Table 4.4 summarizes the sources of funds. BRAND brought broadband to 896 localities, more than double the number initially planned, without additional
federal funding (Industry Canada 2006). During the same period, other
federal, provincial, regional, and municipal programs connected about
1,100 additional localities. The number of rural communities without
broadband access was thus roughly halved between 2001 and 2006. In
2009, the federal government allocated a further Can $225 million to
Broadband Canada, a new program to extend broadband to about 22 percent of rural households still without service or having only low-speed
access (Industry Canada 2009). Additionally, several other federal and
provincial development programs supported broadband projects.22
Mandatory Contributions
For reasons of economic eiciency and fairness, government financing
through the budget is the preferred choice for fiscal support of broadband
development. This, however, puts broadband in direct competition with
other demands on the budget. It also subjects the broadband strategy to the
uncertainties of annual budgetary appropriations.
An alternative is to raise the funds from mandatory contributions by
telecommunications operators, which are generally placed in UASFs.
Operators are generally willing to contribute reasonable amounts to such
Table 4.4 Investment in the Broadband Rural and Northern Development
Pilot in Canada, by Source of Funds, 2002–06
Source of funds
Federal government
Can $ (millions)
% of total
78.0
44.7
50.7
29.1
Other sources
Service providers
Community leaders
15.0
8.6
Provincial and municipal governments
16.0
9.1
Other federal or provincial programs
14.2
8.2
First Nations
0.2
0.1
Other
0.3
0.2
96.4
55.3
174.4
100.0
Total other sources
Total
Source: Industry Canada 2006.
Extending Universal Broadband Access and Use
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UASFs if the contributions and the management thereof are transparent,
contributions are allocated fairly, and operators are eligible to receive
support financed by the proceeds of this contribution. This is essentially a
tax, and, although it is generated and used of-budget, it should be subject
to the same considerations regarding economic justification of fiscal
support discussed earlier. Since operators pass these levies on to their
customers, mandatory contributions by operators raise the question of
fairness in which users of existing services, including low-income users,
are required to help to pay for a new service that will initially benefit
mostly higher-income and better-educated groups. There is also some evidence that this practice has an overall negative impact on the economy as
a whole (Wallsten 2011).
Where used, levies of typically around 2 percent of gross revenues have
suiced to support programs to extend wireline telephone service to rural
areas in developing countries. To spread the burden among as many customers as possible, eventually approximating the efect of a broad-based
tax, in principle all operators should pay.23 Mandatory contributions are
generally assessed in proportion to gross revenues, adjusted to avoid double
counting (for example, to exclude payments received from other operators
along the supply chain). Revenue information is easy to collect and audit,
and this method results in customers paying markups that are proportional
to their bills, much like a progressive tax.
International Loans, Credits, and Grants
Several international organizations support the development of communication services. The ITU provides technical assistance, training, standards,
and forums for policy and regulatory debate. Multilateral development
banks, such as the World Bank and regional development banks for Africa,
Asia, Europe, and Latin America, have a long history of providing assistance to governments to extend communication services to localities
where service provision is not commercially viable. Traditionally, this
assistance consisted of financing rural components of national telecommunications development programs carried out by state enterprises.
In the wake of sector reforms from the 1990s, emphasis shifted away
from financing public sector investment to creating a policy and regulatory environment that enables private investment in increasingly competitive markets. More recently, the scope of support has widened from
telecommunications to ICTs, from voice and data to broadband, and from
reaching end users to building high-speed backbones connected to international networks. Multilateral development organizations that support
private companies rather than governments, such as the International
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Finance Corporation, have also found a growing role in broadband development.24 Bilateral development agencies, such as the U.S. Agency for
International Development, the U.K. Department for International
Development, and the Japan International Cooperation Agency, have followed roughly similar trends.
Support from international development organizations for broadband
development typically involves some combination of technical assistance,
grants, loans, and credits. Output-based aid (OBA), which links financial
support to results, is increasingly used to accelerate or expand access to a
range of basic services (such as infrastructure, health care, and education)
for the poor in developing countries.25 Well-designed OBA schemes
sharpen the targeting of development outcomes, improve accountability
for the use of public resources, and provide stronger incentives for eiciency and innovation. OBA schemes often use competition among firms
for assigning cash subsidies. The Global Partnership on Output-Based
Aid (GPOBA) is a group of donors and international organizations that
works together to support OBA approaches. GPOBA has funded telecommunications projects in Bolivia, Cambodia, Guatemala, Indonesia, and
Mongolia, as well as a study on new tools for universal service in Latin
America and a study on ICTs in the Pacific. GPOBA provided a US$5.5 million grant as seed money to establish a USF in Mongolia, which would
collect a levy on telecommunications bills and use it to extend service to
rural and nomadic areas that are not commercially viable on their own.
Both GPOBA and the World Bank’s Private-Public Infrastructure Advisory Facility (PPIAF) provided grants for technical assistance to design
the universal service program and set up the fund (Dymond, Oestmann,
and McConnell 2008). Box 4.5 discusses the role that the International
Development Association is playing in Africa.
Universal Access and Service Funds for Broadband Development
The financing of UAS has gone through various stages, ranging from crosssubsidies that finance nonprofitable areas under a monopolistic scenario to
the creation of UASFs financed by operator levies that support projects in
more competitive markets. A range of other solutions lies between these
two points. Historically, first-generation fund projects have been primarily
top-down (for example, Colombia and Peru), with the fund defining the
locations and requirements. However, in the last few years, bottom-up projects have been tried in Chile and other countries. In Sub-Saharan Africa, the
tendency has been toward top-down projects, primarily allocated through
competitive processes such as least-cost subsidy bids. Chapter 2 discusses
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Box 4.5: Regional Communications Infrastructure Program
in East and Southern Africa
Credits from the International Development
Association totaling US$164.5 million are
financing the first stage of the Regional Communications Infrastructure Program (RCIP) in
East and Southern Africa.26 Several submarine optical fiber cable projects that are under
way will provide global broadband connectivity at potentially low marginal costs at several
landing points in this region. But developing
regional broadband backbone networks to
connect the population to these points is, for
the time being, not commercially viable on
its own. The RCIP is financing investment in
PPPs to develop these regional broadband
networks so that global connectivity from
submarine cables can be extended throughout the region, to ensure open access to this
infrastructure by all providers, and to promote utilization of the infrastructure to realize
the benefits of broadband connectivity and
commercial sustainability. The RCIP is open
to 26 countries, subject to readiness and eligibility for financing. The first phase comprises projects in Burundi, Kenya, and Madagascar. Eight other countries have expressed
interest in joining, supported by International
Development Association credits for about
US$260 million.
Source: World Bank, Africa Regional Program, http://worldbank.org/ict.
mechanisms such as public-private partnerships, local eforts, and bottomup networks, and the following sections discuss the use of UASFs to collect
and disburse funds.
Over the last two decades, UASFs were created in many countries to
finance network expansion. UASFs are being used in competitive markets to
supplement market-based policies and address access gaps and market
failures in remote and underserved locations. They are often seen as a
competitively neutral solution for open-market environments, where all
operators in the market are obliged to share the responsibility for (and the
benefits of ) providing universal access. They are also relevant to extending
broadband ahead of and beyond the market.
Advocates of UASF state that, where properly designed and implemented
and with suicient internal resources and expert capacity, the UASF model
can act as a country’s centralized “clearinghouse” through which funding
from a range of sources flows in while development projects are assigned
and awarded in order to improve the eiciency and coordination of various
ICT development and financing initiatives (Task Force on Financial Mechanisms for ICT for Development 2004). During the 1990s, several Latin
American countries (such as Chile, Peru, and Colombia) used the UASF to
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support widespread deployment of public telephones to rural and remote
areas. These countries are now also using the UASF to extend broadband
services to rural areas; for example, Chile is using UASFs to provide Internet
access and multipurpose telecenters to unserved areas.
InfoDev’s ICT Regulation Toolkit illustrates how so-called “secondgeneration” UASFs are applying their resources to the financing of Internet
points of presence (POPs) in rural districts, telecenters, and cybercafés,
school connectivity, and other ICT initiatives. Uganda is one of the first
countries to establish a more comprehensive USF, and many of its recent
initiatives use technology-neutral competitions, which are increasingly
being won by mobile operators.
However, many countries have raised legitimate concerns regarding
UASFs due largely to a few instances of mismanagement and lack of transparency in fund collection and disbursement. Countries have also been concerned with the complexity involved in implementing and managing a
UASF. It may be a daunting task for governments to get all operators to
accept the conditions of the fund, particularly who will contribute to the
UASF and how much those contributions will be (Maddens 2009).
Brazil, for example, has struggled with its fund, the Fundo de Universalização dos Serviços de Telecomunicações (FUST). FUST was established
with the purpose of creating a financial resource that could complement the
deployment of universal obligations of the wireline operators, but in reality
the cost of expanding services is being borne directly by the operators.
FUST’s most critical challenge is that it is not technologically neutral. It
favors wireline service operators over other telecommunications providers,
as the funds can only be applied toward wireline service projects. However,
all telecommunications service providers are required to contribute, which
favors one service over another.
Acknowledging that this is not the best funding mechanism, the Ministry
of Communications carried out a public consultation in April 2008 with the
intention of reforming the Brazilian telecommunications framework. In the
consultation, the ministry proposed that the FUST should be, at the very
least, technology neutral in its distribution mechanism. The Brazilian Congress is presently considering a variety of other ways to distribute funds and
to determine appropriate projects. Currently, various draft laws are under
consideration that, if passed, will amend the FUST regulations to allow the
use of FUST moneys for projects that seek to increase access to broadband
services in Brazil.
Policy makers have also found that mechanisms need to be put in place to
make UASFs accessible to a wider range of telecommunications service providers. Limiting access to funds to a specific category of licensee or to
Extending Universal Broadband Access and Use
183
licensed operators, for example, can create barriers that continue to support
existing conditions (that is, the expansion of wireline networks to provide
universal service or access) and discourage the implementation of new
technologies to provide service in unserved or underserved areas. In Peru,
telecommunications service providers with concession contracts for final
public services (wireline, including pay phones, and mobile) and value
added services (data services, including broadband Internet access) can
access FITEL funds. If the entity requesting the funds does not have a concession contract for the area for which it is requesting the funds, it must
request the appropriate expansion of the concession contract from the Ministry of Transportation and Communications (Peru, OSIPTEL 2005). Letting a variety of entities have access to UASFs allows countries to benefit
from a greater number of possible resources to help them to achieve their
universal service goals. In addition, these resources can sometimes provide
innovative solutions for small-scale projects that would not normally be
considered profitable.
In addition, the development and presentation of project proposals for
UASF consideration should not be restricted to the fund authority or to telecommunications providers, but instead should be open to all entities with
an interest in contributing to the fulfillment of universal service or access.
In Chile, project proposals can be presented by telecommunications service
providers, regional, provincial, or municipal authorities, universities, nongovernmental organizations, neighborhood communities, and others.
Chile’s Subsecretaría de Telecomunicaciones (SUBTEL), the entity responsible for administering and managing the country’s UASF, uses these project
proposals to design and develop the fund’s annual project agenda (Chile,
SUBTEL 2001). A system where multiple parties can submit project proposals allows all interested parties to contribute to achieving the country’s USO
objectives. Having multiple sources for project proposals can provide a
more realistic vision of the needs and conditions of the market, such as what
type of service is required by localities and which technology is best suited
and more likely to result in creative and resourceful projects. This has
become even more relevant in a broadband context.
The UASF should not only support a country’s present universal service objectives, but also be able to adapt to the demands and trends of a
converging telecommunications sector by fostering the use of new and
innovative technologies to achieve future USO goals. A 2006 study undertaken for the Forum of Latin American Telecommunications Regulators
(Regulatel) concluded that Latin American UASFs had played an important role in network development and identified some of the challenges
(Bossio and Bonifaz 2006). The study made specific recommendations
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for improving, streamlining, or realigning the activities of Latin
American UAS policies and UASF programs. Since universal access to
telephony is, in the opinion of the study’s authors, close to being
achieved in Latin America, the study recommended reorienting UASFs
toward supporting “ubiquitous deployment of advanced technologies
and services (Bossio and Bonifaz 2006, 45).” The study advised that, as
the communications technology revolution continues, the new generation of UASFs could become leaders, not followers, in ensuring that
populations have access to the most modern and efective networks,
services, and applications available. This would include broadband,
wireless, multiservice platforms permitting full access to all functions
and features of telephony, Internet, data transmission, e-commerce,
e-government, multimedia entertainment, and interactive communications. The new USAFs’ role in promoting broadband would be through
support to intermediary facilities, such as backbones (including POPs),
towers, and other passive infrastructure.
The study recognized, however, that a new generation of funds managed
by public sector administrators is still unlikely to have the capacity to lead
developments in the field of advanced technologies and services; instead,
the private sector is likely to continue to be the leader in technology and
service innovation and in service expansion, which is in line with marketdriven developments. Therefore, new UASFs may not lead, but, by putting
emphasis on broadband, can at least mirror in rural and underserviced areas
what the market is achieving on its own in urban areas. Once government
has agreed on an aggressive broadband promotion policy, new UASFs will
not wait until a large portion of the population has access to broadband to
start filling in the gaps, but rather will act in parallel to the market, while
taking care not to subsidize areas that the market would serve on its own.27
As illustrated in boxes 4.6 and 4.7, other countries from around the world are
also shifting the focus of UASFs.
Best Practices for Effective Management of Flow of Funds
Whether funds flow through a UASF or other public financing body such as
a PPP or municipal-led project, several key principles are applicable to
ensure that funds go to projects aimed at achieving universal broadband
access:
• Transparency. Relates to the efective and transparent management of
the flow of funds in accordance with the mandate of the entity managing the funds. Transparency of procedures can be enhanced through
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Box 4.6: Reform of the USF in the United States
In the United States, the Federal Communications Commission released a Notice of
Proposed Rulemaking on its efforts to transform the high-cost portion of the USF to support broadband as well as to reform the intercarrier compensation system in a new
Connect America Fund.28 The proposed
reforms are based on four pillars:
• Modernizing USF and intercarrier compensation to support broadband networks
• Ensuring fiscal responsibility by controlling costs and constraining the size of the
fund
• Demanding accountability from both USF
recipients and the government itself
• Enacting market-driven and incentivebased policies to maximize the impact of
scarce program resources and the benefits to all consumers.
Source: United States, FCC 2010b.
Box 4.7: Reform of the RCDF in Uganda
In Uganda, the Rural Communications Development Fund (RCDF) was established in 2003
to support the development of a commercially viable communications infrastructure in
rural Uganda, thereby promoting social, economic, and regional equity in the deployment
of telephone, Internet, and postal services.
Subsidies are awarded through a competitive
process and are only available to geographic
areas where service provision is not feasible
or is unlikely to be provided by operators
within the next one to two years without subsidy. The RCDF mandates the provision of
Internet POPs and wireless access systems
at district centers as well as national Internet
exchange points (IXPs) to facilitate inter-ISP
traffic. The approach taken in the RCDF Internet POP Program focused on the delivery of
broadband services to districts with existing
demand. The RCDF took the approach that, if
such services are to be sustainable and viable, they should be deployed first where private and public clients are ready to support
them. Once the service is established in the
more densely populated district centers, further deployment beyond their boundaries
should be reviewed as demand and capacity
become evident.
Source: infoDev and ITU, “ICT Regulation Toolkit, Practice. Note on Uganda.” http://www.ictregulationtoolkit.org.
Note: Uganda’s Rural Communications Development Fund, http://www.ictregulationtoolkit.org/en/PracticeNote.3144
.html.
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a manual or handbook for recipients of public financing, whether
funding is through a UASF, a PPP, or another financing mechanism.
Such manuals generally set out the specific rules with respect to critical issues such as procurement, accounting standards, project selection criteria, technical partner selection criteria, tendering processes
and procedures, and disbursement procedures or participation rules
in the case of a PPP.
• Accountability. Relates to the level and detail of reporting on activities
and is aimed at ensuring transparency of operations. In general,
accountability requires periodic reports to be provided to the relevant stakeholders, including the communities, with respect to the
monitoring, evaluation, and impact of the projects being undertaken.
This helps to ensure both accountability and stakeholder and community awareness. In addition, there should also be a requirement for
annual auditing—the funds and accounts of the USAF should be
audited independently on an annual basis, and the audit results
should be made public. Similarly, in the case of a specific project, the
recipient of public financing (whether from a fund or other source)
should provide regular, audited reports on its progress and performance. And finally, there is generally the requirement for an annual
report on the flow of funds.
• Eiciency. Requires several elements in order for funds to flow eiciently and to promote broadband ahead of and beyond the market.
Required elements include an understanding of the environment and
responsiveness to market realities; management autonomy allowing
flexibility to adapt to market realities; suicient financial resources to
allow eicient selection of projects; adequate human resources and
capacity to enable efective project implementation; quality of service
targets and measures; monitoring, dispute resolution, and sanctioning
powers; and evaluation and review mechanisms. An ineicient structure can be too slow in implementing projects, in which case the steps
taken may be inappropriate, too late, or too expensive, among other
problems.
Reviewing the Flow of Funds
National UAS programs should be reviewed regularly in terms of strategy
and management. Such reviews should also be applied to the flow of
funds to achieve broadband ahead of and beyond the market, whether
Extending Universal Broadband Access and Use
187
through the use of UASFs, PPPs, or other funding mechanisms. Best
practice indicates that such reviews should be carried out by an independent entity (with relevant expertise in the fields of UAS, project finance,
and operational management). Where public funds are applied to move
broadband access ahead of or beyond the market, the evaluation should
consider the following elements:
• The achievement of specific targets, as indicated in a UAS or NBP, to
move broadband ahead of and beyond the market and, if applicable, the
achievements of the UASF against its objectives
• The role of the commercial sector and of development or financing partners in contributing to universal broadband implementation, including
through PPPs
• If applicable, the collection and disbursement of the UASF against projections and the costs and efectiveness of the UASF’s management and
management structure
• The impact and contribution of universal broadband projects and services on social difusion and use of ICT services
• The impact and contribution of universal broadband projects and services on the development of the country, including the impact on the
country’s macroeconomic situation, social development, and entrepreneurship and innovation
• The impact and contribution of universal broadband projects and services on the development of infrastructure supply in the telecommunications sector
• The strategic options for future development of the UAS program to
meet the objective of achieving universal broadband access
• The financial requirements to meet these objectives and recommendations with respect to future levies, if applicable, fund raising, and partnerships
• Other strategic recommendations regarding the direction of the program
to move broadband ahead of and beyond the market and management of
the fund, if applicable.
The government can use the results of the review and its recommendations to guide future UAS and broadband policy, renew and revise its
objectives, or, where applicable, change the mandate of the UASF.
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Notes
1. An alternative interpretation is that only those innovations that ultimately
pass the market test are sustainable and considered successful.
2. Finland, Ministry of Transport and Communications (2009); “Finland Makes
Broadband a Legal Right,” BBC News, July 1, 2010, http://www.bbc.co.uk/
news/10461048.
3. Amendment 331/2009, as integrated into section 60c of the consolidated
Finnish Communications Market Act, http://www.finlex.fi/en/laki/
kaannokset/2003/en20030393.pdf. begin_of_the_skype_highlighting
4. FICORA, “1 Mbit/s Broadband for Everyone on 1 July 2010: Telecom Operators’
New Universal Service Obligations Enter into Force,” June 29, 2010, http://
www.ficora.fi/en/index/viestintavirasto/lehdistotiedotteet/2010/P_27.html.
5. Government of Canada, “Canada’s 2009 Economic Action Plan,” http://www
.actionplan.gc.ca/eng/index.asp.
6. Ireland, Department of Communications, Energy, and Natural Resources,
“National Broadband Scheme,” http://www.dcenr.gov.ie/Communications/
Communications+Development/National+Broadband+Scheme.htm.
7. “Universal Service Obligation Fund Supported Scheme for Wire Line
Broadband Connectivity in Rural and Remote Areas,” http://ittripura.nic.in/
USOF_broadband_scheme.pdf.
8. “Deal Reached to Build Broadband Network across Jamaica,” Caribbean 360,
April 7, 2011, http://www.caribbean360.com/index.php/business/329864.html.
9. E-Dominicana is a national strategy that seeks “to promote the use and
appropriation of information and communication technologies in the
Dominican Republic by means of initiatives that create synergies between the
governmental sector, the civil society, and the productive sector, to ofer all its
inhabitants better opportunities which will contribute to their development,
by bringing them welfare and progress in the exercising of their capacities.” Its
vision is “to place the country in a position that will allow it to compete in the
new scenario of a globalized world, by achieving sustainable development in
the economic, political, cultural, and social scope, and to assume the challenge
of converting inequality and social exclusion from the digital divide into a
digital opportunity” (San Román 2009, 20).
10. InfoDev and ICT, “ICT Regulation Toolkit, Module 4, Universal Access and
Service,” sec. 4.1.3, Relationship to Broadband Policy, http://www.ictregulation
toolkit.org/en/Section.3258.html.
11. Industry Canada, “Minister Clement Provides Update on Government of
Canada’s Rural Broadband Plan,” May 2010, http://www.marketwire.com/
press-release/Minister-Clement-Provides-Update-on-Government-ofCanadas-Rural-Broadband-Plan-1158936.htm.
12. “Finland on Track with National Broadband Plan,” Business Monitor International, April 2010, http://store.businessmonitor.com/article/343046.
13. infoDev and ITC, “ICT Regulation Toolkit, Module 4: Universal Access and
Service,” sec. 2.4.2, Revising the Licensing Regime or Issuing New Licenses,
http://www.ictregulationtoolkit.org/en/Section.3214.html.
Extending Universal Broadband Access and Use
189
14. ITU, “ITU Statshot,” January 2011, http://www.itu.int/net/pressoice/
stats/2011/01/index.aspx.
15. Law no. 55-01, adopted in November 2004, made important modifications in
the setup of universal service in Morocco. The universal service definition was
extended to include the supply of value added services, including Internet.
A new approach relating to the operator’s contribution to the mission of
universal service was also introduced, including regional development
obligations and the introduction of the “pay or play” mechanism; see the note
on telecommunications and the ICT sector in Morocco, available at http://
www.apebi.org.ma/IMG/pdf/E-Morocco.pdf.
16. The discussion of subsidies, including verbatim without quotes, draws from
Wellenius, Foster, and Calvo (2004). The examples are taken from the
individual references noted.
17. Subsidies can be designed to reduce access barriers to which target groups
(for example, low-income families) are especially sensitive, such as initial
connection, equipment, or installation charges. This is common in electricity
and water supply.
18. About 2–3 percent of community income is often used for initial discussion of
rural telecommunications programs. Surveys of rural communities in countries
as diferent as Argentina, India, Nicaragua, and the Philippines show that
households spend about 5 percent of monetary income on energy, fairly
consistently across countries and with even higher proportions for the
lower-income households. The World Health Organization’s target is that
water supply should not cost more than 5 percent of household income.
See references in Wellenius, Foster, and Calvo (2004).
19. See infoDev and ITU, “ICT Regulation Toolkit, Module 4: Universal Access and
Service,” sec. 6.1.2, Per Capita and Household Expenditure on Communications,
http://www.ictregulationtoolkit.org. In high-income countries the proportion is
smaller, although the amount is higher in absolute terms. In Finland in 2006,
households on average spent 3 percent of income on telecommunications.
20. Combining rural infrastructure projects of diferent sectors (for example,
telecommunications and electricity) can reduce total government costs
(for example, demand surveys, road shows, supervision) and supply costs
(especially operation and maintenance).
21. First Nation comprises aboriginal groups (except Inuit and Métis) organized in over 600 governments, mainly in the provinces of Ontario and
British Columbia. Inuit are aborigines who live in the Arctic of Canada,
Greenland, and Alaska, formerly referred to as Eskimos. Canadian Inuit live
mainly in northern Québec, coastal Labrador, and parts of the Northwest
Territories, especially on the Arctic Ocean coast. Métis are the descendants
of First Nation and Europeans, mainly French, during colonial times. They
are found in British Columbia, Alberta, Saskatchewan, Manitoba, Québec,
New Brunswick, Nova Scotia, and Ontario, as well in the Northwest
Territories.
22. Industry Canada, “Broadband Canada Connecting Rural Canadians: Other
Federal and Provincial Programs,” http://www.ic.gc.ca/eic/site/719.nsf/
eng/h_00032.html.
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23. Some categories of providers might be exempted for competition policy and
other reasons. For example, new entrants should not be expected to help to
finance the incumbent with which they are trying to compete.
24. The International Finance Corporation is the World Bank Group’s arm for
investing and lending to the private sector.
25. OBA is also known as performance-based aid or results-based financing (in the
health sector). It is part of a broader efort to ensure that aid is well spent and
that the benefits go to the poor.
26. The International Development Association is the arm of the World Bank
Group that provides long-term financing for development at low interest
rates to low-income countries.
27. Regulatel and the World Bank, “New Models for Universal Access in Latin
America, Summary of Main Report,” http://www.ictregulationtoolkit.org/en/
Section.3286.html.
28. United States, FCC, “Universal Service,” http://www.fcc.gov/wcb/tapd/
universal_service/.
References
Atkinson, Robert D., Daniel K. Correa, and Julie A. Hedlund. 2008. “Explaining
International Broadband Leadership.” Information Technology and Innovation
Foundation, Washington, DC, May. http://www.itif.org/files/Explaining
BBLeadership.pdf.
BEREC (Body of European Regulators for Electronic Communications). 2010.
“Report on Universal Service: Reflections for the Future.” BEREC, Riga,
June. http://www.erg.eu.int/doc/berec/bor_10_35_US.pdf.
Beschorner, Natasha. 2010. “Universal Access and Service: New Direction,
Examples from the East Asia and Pacific Region.” Paper prepared for the World
Bank and International Telecommunication Union, “Seminar on Broadband and
USO,” Bangkok, November. http://www.tridi.ntc.or.th/library/components/
com_booklibrary/ebooks/3C994EDFd01.pdf.
Bossio, Jorge, and Luis Bonifaz. 2006. “Perú.” In “Nuevos Modelos para el Acceso
Universal de los Servicios de Telecomunicaciones en América Latina – Informe
de Países, REGULATEL, Bogotá: FITEL portal.” http://fitel.gob.pe.
Chile, SUBTEL (Subsecretaría de Telecomunicaciones). 2001. “Decree Approving
the Guidelines for the Telecommunications Development Fund [Fondo de
Desarrollo de las Telecomunicaciones].” SUBTEL, Santiago, December 28.
———. 2008. “Infraestructura digital para competividad e innovación, informe
nacional.” SUBTEL, Santiago. http://www.subtel.cl.
Denmark, National IT and Telecom Agency. 2010. “Ambitious New Broadband
Goal for Denmark.” National IT and Telecom Agency, Copenhagen, June.
http://extranet.broadband-europe.eu/Lists/StrategiesData/Attachments/41/
Danish%20broadband%20goal%20June%202010_EN.pdf.
Extending Universal Broadband Access and Use
191
Dymond, Andrew. 2010. “Universal Service: The Trends, Opportunities, and Best
Practices for Universal Access to Broadband Services.” Intelecon Research
and Consultancy, Vancouver, November. http://www.inteleconresearch.com/
pages/documents/OOCUR_Paper_Dymond_UAStoBroadband.pdf.
Dymond, Andrew, Sonja Oestmann, and Scott McConnell. 2008. “Output-Based
Aid in Mongolia: Expanding Telecommunications Services to Rural Areas.”
OBApproaches Note 18, World Bank and Global Partnership on Output-Based
Aid, Washington, DC, February.
European Commission. 2009. “Community Guidelines for the Application of State
Aid Rules in Relation to Rapid Deployment of Broadband Networks.” European
Commission, Brussels, September. http://eur-lex.europa.eu/LexUriServ/
LexUriServ.do?uri=OJ:C:2009:235:0007:0025:EN:PDF
———. 2010. “European Broadband: Investing in Digitally Driven Growth.”
European Commission, Brussels. http://ec.europa.eu/information_society/
activities/broadband/docs/bb_communication.pdf.
European Commission and ITU (International Telecommunication Union). 2011.
“Update of SADC Guidelines on Universal Access and Service and Assessment
Report.” ITU-Digital, Brussels, March. http://www.itu.int/ITU-D/projects/
ITU_EC_ACP/hipssa/events/2011/SA2.2.html.
Finland, Ministry of Transport and Communications. 2009. “Memo on the
Communications Decree on the Minimum Rate of a Functional Internet
Access as a Universal Service.” Ministry of Transport and Communications,
Helsinki, October 7. http://www.lvm.fi/c/document_library/get_file?folder
Id=913424&name=DLFE-10508.pdf&title=Background.%20Ministry%20
of%20Transport%20and%20Communications%20decree%20on%20the%20
minimum%20rate%20of%20a%20functional%20Internet%20access%20
as%20a%20universal%20service%20(7.10.2010).
Industry Canada. 2006. “Formative Evaluation of the Broadband for Rural and
Northern Development Pilot.” Industry Canada, Ottawa. http://www.ic.gc.ca/
eic/site/ae-ve.nsf/eng/01425.html.
———. 2009. “Canada’s Economic Action Plan: Broadband Canada, Connecting
Rural Canadians Application Guide, September 1, 2009.” Audit and Evaluation
Branch, Ottawa. http://www.ic.gc.ca/eic/site/719.nsf/eng/h_00015.html.
ITU (International Telecommunication Union). 2003. Birth of Broadband: ITU
Internet Reports. Geneva: ITU. http://www.itu.int/osg/spu/publications/sales/
birthobroadband/index.html.
———. 2008. “The Experience of the Dominican Republic in the Development of
Innovative Strategies for the Promotion of Information and Communication
Technologies” “Eighth Global Symposium for Regulators,” Pattaya, Thailand,
March 11–13. ITU, Geneva.
Kim, Yongsoo, Tim Kelly, and Siddhartha Raja. 2010. “Building Broadband:
Strategies and Policies for the Developing World.” Global Information and
Communication Technologies Department, World Bank, Washington, DC,
January. http://www.thinkinnovation.org/file/research/5/en/Building_
broadband.pdf.
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León, Laura. 2009. “Informe de acción de incidencia regional Perú: Fondo de
Inversión en Telecomunicaciones” Centro Peruano de Estudios Sociales,
Lima. http://www.apc.org/en/system/files/CILACIncidenciaRegional
Peru_20090707.pdf;
Maddens, Sofie. 2009. “Trends in Universal Access and Service Policies.” GSR-09
Background Paper, ITU, Beirut, November 10. http://www.itu.int/ITU-D/treg/
Events/Seminars/GSR/GSR09/papers.html.
Muente-Kunigami, Arturo, and Juan Navas-Sabater. 2010. “Options to Increase
Access to Telecommunications Services in Rural and Low-Income Areas.”
InfoDev and World Bank, Washington, DC. http://siteresources.worldbank.org/
EXTINFORMATIONANDCOMMUNICATIONANDTECHNOLOGIES/
Resources/282822-1208273252769/Options_to_Increase_Access_to
_Telecommunications_Services_in_rural_and_Low-Income_Areas.pdf.
OECD (Organisation for Economic Co-operation and Development). 2008.
“Broadband Growth and Policies in OECD Countries.” OECD, Paris.
http://www.oecd.org/dataoecd/32/57/40629067.pdf.
Peru, OSIPTEL (Organismo Supervisor de Inversión Privada en Telecomunicaciones). 2005. “Resolution # 025-2005-CD/OSIPTEL.” OSIPTEL, Board of
Directors, San Borja, Peru, May.
Petersen, Finn. n.d. “Broadband Policies: The Danish Approach.” National IT and
Telecom Agency, Helsinki, http://www.ictaustria.at/web/MDB/media_folder/
79_ICT-austria.ppt.
San Román, Edwin. 2009. “Bringing Broadband Access to Rural Areas: A Step by
Step Approach for Regulators, Policymakers, and Universal Access Program
Administrators; The Experience of the Dominican Republic.” Paper prepared
for the “Ninth Global Symposium for Regulators,” Beirut, November 10–12.
Task Force on Financial Mechanisms for ICT for Development. 2004. “Financing
ICT4D: A Review of Trends and an Analysis of Gaps and Promising Practices.”
ITU and World Summit on Information Society, Geneva. http://www.itu.int/
wsis/tfm/final-report.pdf.
United Kingdom, Department for Business, Innovation, and Skills and Department
for Culture, Media, and Sport. “Britain’s Superfast Broadband Future.”
Department for Business, Innovation, and Skills, London, December.
http://www.culture.gov.uk/images/publications/10-1320-britains-superfastbroadband-future.pdf.
United States, FCC (Federal Communications Commission). 2010a. “Connecting
America.” In The National Broadband Plan, ch. 2. Washington, DC: FCC.
http://www.broadband.gov/plan/2-goals-for-a-high-performance-america/.
———. 2010b. “Report and Order and Further Notice of Proposed Rulemaking.”
FCC, Washington, DC. http://transition.fcc.gov/Daily_Releases/Daily
_Business/2011/db1122/FCC-11-161A1.pdf.
Wallsten, Scott. 2011. “The Universal Service Fund: What Do High-Cost Subsidies
Subsidize?” Technology Policy Institute, Washington, DC, February.
http://www.techpolicyinstitute.org.
Extending Universal Broadband Access and Use
193
Wellenius, Björn, Vivien Foster, and Christina Malmberg Calvo. 2004. “Private
Provision of Rural Infrastructure Services: Competing for Subsidies.” Policy
Research Working Paper 3365, World Bank, Washington, DC.
World Bank. 2005. “Financing Information and Communication Infrastructure
Needs in the Developing World: Public and Private Roles.” Working Paper 65,
Global Information and Communication Technologies Department, World
Bank, Washington, DC.
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CHAPTER 5
Technologies to Support
Deployment of Broadband
Infrastructure
This chapter examines the building blocks for constructing broadband
networks. It looks at high-speed connectivity from a hierarchical perspective, moving from international, to national, to metropolitan, and
finally to local access deployment solutions. The chapter describes the
various wireline and wireless technologies for deploying broadband
infrastructure, including examples of various deployments throughout
the world, and discusses some of the issues associated with implementing these technologies. The focus is on the physical networks and associated protocols for routing traic rather than the end user services and
applications that are accessed over the networks, which are discussed in
chapter 6.
Overview of Broadband Networks
As policy makers consider plans and strategies for developing broadband
networks, it is important to recognize that such networks have many components. All of these parts must work together for the network to function
195
efectively and eiciently. This handbook categorizes these component
parts into four hierarchical levels, which together constitute the broadband supply chain: international connectivity, the national backbone
network, metropolitan access links, and the local access network (figure 5.1). Besides physical connectivity, networks require traic routing
intelligence to ensure that information is correctly sent and received. This
section describes the physical components of broadband networks and
discusses the evolution of network intelligence based on Internet Protocol (IP) routing.
Figure 5.1
Broadband Supply Chain
fiber optic
cable landing
station
international
connectivity
satellite
earth
station
fiber optic
microwave
satellite
domestic backbone
metro
ring
network
metropolitan/backhaul
WiMAX
LTE
EV-DO
W-CDMA/HSPA
fttp
DSL
cable modem
wi-fi
TD-SCDMA
cell site
switch
local
access
networks
Source: Telecommunications Management Group, Inc.
Note: Generalized typical infrastructure implementation and topology, excluding technologies not widely used. DSL = digital
subscriber line; EV-DO = CDMA2000 Evolution Data Optimized (mobile communication standard); fttp = fiber to the premises;
LTE = Long-Term Evolution (mobile communication standard); TD-SCDMA = Time Division–Synchronous Code Division Multiple
Access (mobile communication standard); W-CDMA/HSPA = Wideband Code Division Multiple Access (family of mobile communication standards)/High-Speed Packet Access; Wi-Fi = Wireless Fidelity, a wireless local area network standard based on the
IEEE 802.11 standards; WiMAX = Worldwide Interoperability for Microwave Access (fixed and mobile communications
standard).
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The Broadband Supply Chain
The broadband supply chain has four main infrastructure components
(figure 5.1):
• International connectivity provides links to broadband networks in other
countries usually via satellite and fiber optic cable. This requires network
intelligence to exchange and route international Internet traic.
• National backbone network provides pathways for transmitting Internet
data across a country, typically via microwave, satellite, and fiber optic
links. This also includes traic management, exchange, and routing as
well as issues related to enhancing eiciency and quality over IP networks
such as Internet exchanges, metropolitan rings, and next-generation networks (NGNs).
• Metropolitan or backhaul links provide the connections between local
areas and the national backbone network, usually via fiber optic and
microwave and, to a lesser extent, satellite. In a wireless network,
these links are used to bring traic from cell sites back to a switching
center (known as backhaul).
• Local access networks provide the wireline and wireless infrastructure
that end users utilize to connect to the broadband network.
The boundaries between these network components are sometimes
blurred. For example, Internet traic exchanges route domestic traic.
However, they are also related to international traic in that the exchange
may be a peering point for an overseas network. Internet exchanges also
reduce reliance on international connectivity by ensuring that domestic
traic is kept within the country. Metropolitan ring networks provide a
bridge between the domestic backbone network and the various local access
networks. There are also regional implications in that one country’s national
backbone could provide an international connectivity link for a neighboring
landlocked country.
Two additional points should be noted. First, the diferent levels of the
overall broadband network should ideally be in sync. High speeds in the
local access network segment can only be accomplished if the speed and
capacity in the national and international network segments are adequate
to support them. Second, technology deployment is dependent on a country’s existing level of infrastructure. Countries without significant wireline
infrastructure in the local access network may find it financially impractical
to deploy ubiquitous wired networks, but they may be able to upgrade existing wireless networks. Similarly, countries often find it more financially
Technologies to Support Deployment of Broadband Infrastructure
197
attractive to leverage existing networks through upgrade or evolution than
to deploy the latest state-of-the-art technology by building completely new
networks.
Government involvement in the deployment of broadband networks has
important repercussions, as addressed in this chapter. Most local access
networks around the world use copper typically installed by formerly
state-owned enterprises. While many countries leave the construction of
broadband networks to the private sector, governments in other countries
either guarantee bilateral or multilateral loans for the construction of backbone networks or are full or partial owners of wholesale or retail service
providers. Governments may also play a pivotal role as a promoter for large
projects such as international connectivity or national backbones where
the private sector has been hesitant to invest. Even where the private sector has assumed the main role for investment in broadband networks, governments remain influential through their decisions with regard to
spectrum allocation, rights-of-way, and infrastructure sharing. In addition,
governments themselves are important users of broadband.
The Transition to All-IP Networks
An important trend afecting broadband network development is the convergence of broadcasting, telecommunications, and information technology
networks and services. Convergence has proceeded mainly through operators making incremental changes to upgrade their networks, while minimizing large investment outlays. In some cases, this can lead to operators having
to support an array of technologies. For example, wireless providers may
simultaneously support data solutions that include General Packet Radio
Service (GPRS), Enhanced Data Rates for Global System for Mobile Communications (GSM) Evolution (EDGE), Wideband Code Division Multiple
Access (W-CDMA), High-Speed Packet Access (HSPA), and Long-Term
Evolution (LTE). In a very few cases, governments have sought to jump-start
broadband network development by sponsoring the development of a completely new network to replace legacy networks (for example, Australia).
NGNs exploit the advantages of IP to packetize all information and
route it to its destination. NGNs simplify network maintenance and operation by standardizing protocols with IP or Multiprotocol Label Switching (MPLS) at the core.1 In this architecture, common applications and
services can be provided independently of the underlying physical transport network, making it easier for multiple providers to compete efectively in diferent parts of the broadband supply chain (figure 5.2).2 Many
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Figure 5.2 Design of IP Next-Generation Networks
iFrame
cache
managed business services
VoD
(storage,VoIP,security)
application layer
subscriber and
authentication
service detabase
and billing
portal
access
mspp
Distributed
cable 1.2PW.L3VPN
IP Multicast
STB
business
DSL
CPE
PON
video
broadcast
broadband
policy manager
EMS and
provisioning
policy/service layer
edge aggregation
intelligent service edge IP/MPLS core
video/voice - 1.3
HSI/business - MPIS
subscriber edge
residential
VoIP
Centralized
H.VPLS.L3VPN
IP Multicast
aggregation distribution
node (AN) node (DN)
broadband
remote
access
router
DPI
core
mobile/WiMAX
MSE PE
CPE
ETTx
iPoDWDM optical network
Source: Cisco 2009.
199
Note: DSL = digital subscriber line; IP/ MPLS = Internet Protocol/Multiprotocol Label Switching; WiMAX = Worldwide Interoperability for Microwave Access (fixed and
mobile communications standard).
incumbent operators around the world are now converting their legacy
networks to NGN.
For example, KPN (Royal Dutch Telecom), the incumbent operator in
the Netherlands, was one of the first operators in the world to transition
to an all-IP network in 2005 (figure 5.3). As part of the project, KPN’s
backbone infrastructure was upgraded to fiber. Despite the ambitious
plans, KPN has found the conversion to all-IP to be slower than expected.
One reason is the high cost to install fiber in the local access network.
Nevertheless, by the end of 2010, over half of KPN’s access customers
were IP based, including almost half a million using triple-play ofers of
voice over Internet Protocol (VoIP), broadband, and Internet Protocol
television (IPTV).3 An interesting aspect of KPN’s upgrade plan was that
the transition to a much smaller number of IP exchanges allowed for the
disposal of land and buildings made obsolete by the transition, which
largely paid for the required investment with substantially lower future
operating costs.
Figure 5.3
Transition of KPN Netherlands to an All-IP Network
Network efficiency through All-IP
Focus on cash flow generation on while to IP
strategy as announced in 2005
• Ramping up new services like VoIP,
broadband and TV
• Maintaining market shares in
traditional services
• Structurally lower cost by migrating to
all-IP network
focus going forward
• Legacy infrastructure operated longer
than initially planned
– high cash flow generation
– optimizing customer migration to IP
• Focus on cash flow generation
– increasing life time of copper assets ’sweating the asests’
– significant cost savings realized before
complete legacy switch-off
• Switching off legacy IT and platforms
• Managed phase-out legacy networks
– e.g., ATM in business market
• Network upgrade financed by real
1 bn
estate disposals of
• Real estate disposals ongoing
– executed on ad hoc basis in line with
economic conditions
Source: KPN, “Update on KPN’s Fiber Rollout,” Press Release, December 15, 2009, http://www.kpn.com/v2/upload/4140a0cdd7b7-4104-b7b1-76ba7c3419fc_Presentation_Fiber_update.pdf.
Note: €1 billion = US$1.2 billion.
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Basic Technologies for Broadband Connectivity
This section examines the key technologies that are being used to construct
today’s broadband networks. Although each of these technologies can be
used throughout the supply chain, they tend to be used most heavily in the
international, domestic backbone, and metropolitan link segments. Each of
these levels is discussed in more detail later in this chapter, as are the technologies that support wireline and wireless local access networks.
Fiber Optic
Much of the Internet’s content travels via fiber optic cables, particularly
for long-haul transmissions. Fiber optic cable provides closed circuit
transmissions with very large bandwidth and at very high transmission
speeds. These two complementary features occur because these cables,
made of thin strands of coated glass, can transmit signals modulated
over laser-generated beams of light. Rather than transmit using lowerfrequency radio waves, fiber optic cables operate at the frequencies of
light, where the spectrum is larger than in the radio frequencies (the
visible spectrum contains more than 100,000 gigahertz, GHz), making it
possible to carry large volumes of traic at a rate of up to several hundred gigabits per second (Gbit/s) or even terabits per second (Tbit/s).
Additionally, carriers can transmit traic at several diferent frequencies
using a technology called Dense Wave Division Multiplexing (DWDM).
Multiplexing makes it possible for carriers to aggregate traic onto a
shared channel. Demultiplexing unpacks and separates the aggregated
traic back into separate transmission streams for delivery to the
intended recipients.
Because of the high expense incurred when installing cable across an
ocean floor or buried underground, carriers deploying fiber optic cables
typically install dozens of glass strands into one cable. Initially, not all of
these individual fibers will be used; carriers can activate (“light”) individual
strands as demand grows. Installed but unused “dark fiber” can be activated later, as required. In addition to installation costs, the comparative
disadvantages of using fiber optic cables over copper lie primarily in the
cost of the equipment and labor. While this technology can interconnect
with existing copper networks, additional cross-connect switching equipment must be installed. Carriers with a large installed copper wire network may undertake a cost-benefit analysis and conclude that simply
retrofitting and upgrading the existing network may help to conserve
Technologies to Support Deployment of Broadband Infrastructure
201
capital in the short run. Carriers opting to upgrade will install replacement
fiber optic cable first on backbone routes with high volumes of traic. As
demand for bandwidth grows and investments can be justified, fiber progressively replaces copper cables throughout the network, reaching closer
to the end users.
At present, most backbone networks are fiber based, even in developing economies, and the use of fiber in metropolitan and “middle-mile”
links is rapidly increasing as well, particularly in developed countries. As
the demand for wireless broadband grows, there is also increasing use of
fiber to provide backhaul from cell sites to mobile carrier switching facilities. Fiber penetration in the local access network is still very limited,
even in developed countries. But the emerging trend, especially for
building out new housing and commercial developments, is to install
fiber from the outset. Several deployment scenarios are possible for fiber
optic cable:
• International connectivity—international undersea networks and international terrestrial networks
• National backbones—national undersea networks and national overland
backbone networks
• Metropolitan rings and cellular backhaul
• Subscriber access—fiber to the premises.
Satellite
In the broadband supply chain, satellites are used primarily for international connectivity and some domestic backbones; they are used less
frequently for metropolitan and local access networks. Geostationary
communication satellites receive and transmit information from orbital
slots located 35,786 kilometers (22,282 miles) above Earth. At this
height, the satellite appears in a fixed location when viewed from Earth;
this stable location is an advantage since subscriber satellite dishes do
not need to move or track the satellite.
A satellite’s communication capabilities can be analogized to an invisible
“boomerang” or “bent pipe,” with signals transmitted (uplinked) to the satellite, which then relays (downlinks) them back to Earth. Data are transmitted via the communication satellite’s transponders. Satellites usually have
between 24 and 72 transponders, with a single transponder capable of handling up to 155 Mbit/s (megabits per second).4 Next-generation satellites
will ofer speeds in excess of 100 Gbit/s.5
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From a geosynchronous vantage point, satellites can transmit signals
covering as much as one-third of Earth’s surface. This stable “footprint”
coverage makes satellites an ideal medium for distributing television
(TV) and Internet content on both a single point-to-point basis and a
point-to-multipoint basis. Today’s advanced satellites also make use of
“spot beams” (principally in the Ka band) that allow higher power to be
concentrated in specific regions to improve bandwidth and signal quality. These beams can also be steered or reconfigured to match bandwidth
to specific areas of demand.
A satellite network can be configured in various ways, ranging from a
simple one-direction link to a more complex mesh network. Communications with the satellite take place via an earth station or individual
antenna. The size of the antenna depends partially on the frequency being
used and also afects the volume of information that can be exchanged
with the satellite. Large antennas are typically installed at earth stations
for high-bandwidth applications, while smaller antennas, such as very
small aperture terminals (VSAT) or direct to home (DTH) dishes are used
for applications such as lower-bandwidth Internet access in rural areas or
satellite TV reception. An estimated 3 million commercial VSATs are
used for commercial and consumer purposes around the world, with the
majority supporting broadband Internet or high-data-rate services.6
Each communication satellite requires several hundred million dollars
in investment to cover its construction, insurance, launch, and tracking.
These satellites have a limited usable life (usually around 20 years)
because operators cannot make repairs or add fuel to the propulsion
motors to keep them in proper orbit and pointed at the correct angle
toward Earth. Additionally, satellites have comparatively less transmission capacity than terrestrial options, such as fiber optic cables. The large
distance between the satellite and users on Earth also results in delays,
known as latency, due to the time it takes for instructions to reach a satellite and content to arrive on Earth. Despite these limitations, satellites
excel in their ability to distribute broadband content, such as television, to
many locations and are advantageous for diferent developing-country
characteristics such as archipelagos or diicult terrain as well as for emergency and disaster situations.
Microwave
“Microwave” systems are named for the wavelengths they use to communicate and are generally implemented using frequencies between
6 GHz and 38 GHz (Hansryd and Eriksson 2009). Microwave systems
Technologies to Support Deployment of Broadband Infrastructure
203
provide a point-to-point or point-to-multipoint broadband transmission
option using very high frequencies that transmit a highly directional,
pencil-thin beam of energy. Unlike satellite beams that cover thousands
of square miles, microwave is usually used to transport broadband data
signals from one specific location to another over relatively short distances (generally 40–70 kilometers, depending on the frequency used).
The installation of several microwave receiving and transmission facilities arranged in a chain is needed for longer links, with each transmission
link known as a “hop.”
Microwave radio transmissions use antennas that concentrate radio
energy to generate a naturally amplified signal. To achieve this signal
gain, the very high frequencies of microwave—in the single or multiple
GHz range—are concentrated using antennas shaped in a parabola. With
advanced modulation, typical microwave networks can support up to
500 Mbit/s. In 2010, Ericsson demonstrated a microwave radio connection with a capacity of 2.5 Gbit/s (Ericsson 2010). WiMAX (Worldwide
Interoperability for Microwave Access) is a specific type of microwave
standard that is designed for connecting end users, but it can also be used
for backbone connectivity at high costs. Ranges up to 120 kilometers
(75 miles) have been advertised, with speeds up to 100 Mbit/s.7
Before the advent of fiber optic cables, microwave systems were a leading
provider of backbone and metropolitan (long-distance) connectivity. As
fiber technology improved and costs fell, however, operators began to
replace their microwave systems with fiber cables. This trend started on the
highest-volume traic routes and continues to push into more local parts of
the network. Today, microwave technology is used almost extensively for
point-to-point backhaul and last-mile line-of-sight communications, especially when available capital expenditures are limited. The main advantages
of a microwave system are its relative immunity to interference, its straightforward deployment, and easy reconfiguration. Thus, it can be a practical
alternative in some cases compared to the cost and logistics of laying cable.8
The main drawbacks are that it requires line-of-sight and transmission
capacity that may be too limited for heavy broadband uses.
Copper
Another terrestrial technology still in use for long-haul transmission is
copper wire. While fiber optic cable will eventually replace legacy copper,
replacement costs create financial incentives to use and upgrade existing
networking technology. Copper wire ofers significantly less channel
capacity and commensurately slower bit transmission speeds than other
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media, but it can often suice for low-traic routes. Even in developed
nations, backbone fiber optic routes may exist only for links between
major cities, with copper wire links still serving smaller towns and rural
areas. A recent issue with copper cabling is theft, due to the high price of
copper (Gallagher 2010).
International Connectivity
The Internet is an international “network of networks.” In order to provide
the physical connections between widely separated broadband resources
and consumers, countries must establish international links (gateways) to
connect to the world’s Internet and telephone networks. The technologies
providing long-haul transmission, such as fiber optic cable and satellites,
typically have very high investment costs. While initial “sunk” costs are
high, they have very low incremental costs to accommodate additional
users. These technologies also enable carriers to activate additional capacity on an incremental, graduated basis as demand grows.
International Links
The vast majority of international telecommunications traic is carried by
undersea cable systems—more than 95 percent according to some estimates (Bressie 2010). This reflects the advantages of fiber optic cable in
terms of bandwidth and latency compared to satellite. Undersea fiber optic
cables can transmit data at speeds measured in Tbit/s, while even the newest communication satellites ofer speeds below 1 Gbit/s as well as higher
latency. As of early 2011, there were more than 120 major submarine cable
systems, with another 25 planned to enter service by 2015.9 Submarine
cables are quite expensive to deploy, with costs that routinely reach into
hundreds of millions of U.S. dollars. As such, many are financed by consortiums of operators rather than a single investor. For example, the Eastern
Africa Submarine Cable System (EASSy) has landing points in nine countries and connects to several additional landlocked countries; it is funded by
16 African and international shareholders, all of whom are telecommunications operators and service providers.10
While undersea fiber optic cables may be the preferred option for international connectivity, it is not a viable option for some countries and operators. Landlocked countries, for example, do not have direct access to the sea
and thus are constrained in their ability to exploit submarine technology
fully. Transit costs to tap into an undersea cable can be significant (national
Technologies to Support Deployment of Broadband Infrastructure
205
and regional fiber backbones may not be available to tap into the undersea
cable), but this is becoming less of an issue over time, as landlocked countries complete some type of fiber connection to international cables through
neighboring countries. Landlocked countries may be able to negotiate a virtual coastline so that they own and operate a cable landing station in a
neighboring country’s territory but otherwise depend on the neighboring
country to provide reliable and reasonable prices for transit. Many small
island developing states (SIDSs), mainly in the Pacific Ocean, are distant
from undersea fiber routes, and the economics of connecting to undersea
cable are problematic. Regulatory restrictions or high costs may restrict service providers from accessing undersea cables. These factors tend to encourage the use of satellite connectivity. Another issue is that, even where
countries have access to undersea cable, they still may want to deploy satellite as a backup to ensure redundancy.
Service providers need to contract physical international connections in
order to support their end user broadband requirements. They do so either
by participating in ownership consortiums of the physical facilities or by
leasing connectivity through wholesale operators. A relatively small number of Internet service providers (ISPs)11 have the financial resources needed
to invest directly in capacity in international backbone broadband networks,
so most lease capacity from larger international operators. This can present
several business and regulatory challenges including the following:
• Monopoly or dominant control of international backbone routes. Physical
backbone networks are generally owned by a few operators or consortiums. The restricted ownership can be a barrier for nonailiated ISPs
that need international connectivity.
• Monopoly or dominant control of international landing points. Landing
stations for undersea cable and satellite earth stations are generally controlled by a few entities. Even if an ISP has successfully contracted for
capacity on a fiber optic cable or satellite transponder, it may be constrained in its ability to connect that capacity to its domestic backbone
network. For example, a service provider may lease capacity on a satellite
transponder, but may have to come to a separate agreement with the
owner or operator of the international gateway that receives the satellite’s transmission.
The potential for international connectivity to be a bottleneck in the
development of broadband connectivity cannot be overstated. Submarine
cables connect to domestic backhaul networks at a cable termination station, which is—but may not be—the same facility as the cable landing station
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(that is, where the cable makes landfall). Because all operators in a market,
particularly new entrants, may not have the resources to own and operate a
cable landing station, the owners of such stations—generally the incumbent
operators in newly liberalized markets—may be required to provide access
to the station, and therefore to the cable, on reasonable terms to competing
service providers. Limited access to landing stations can have a chilling
efect on the difusion and take-up of broadband services. Conversely,
limited opportunities or burdensome regulations related to cable landing
can discourage interest in that market among cable operators, again creating a connectivity bottleneck. Governments and regulators may need to
implement competitive policies with respect to issues such as submarine
cable landing stations, open access, and infrastructure sharing to eliminate
such bottlenecks (see chapter 3).
In Singapore, for example, the single cable landing station was owned by
the incumbent operator at the time of market liberalization. Singapore’s
regulator undertook two parallel approaches to improve international connectivity (IDA 2008). The Info-communications Development Authority
of Singapore (IDA) required the incumbent operator to ofer collocation in
its submarine cable landing station to alternative operators, later imposing
connection at regulated prices and granting alternative operators access to
the capacity of submarine cables on behalf of a third party. In addition, the
IDA streamlined the administrative procedures for submarine cable companies to obtain landing permits and authorizations in Singapore. As a
result of these and related actions, prices of international leased circuits in
Singapore decreased 95 percent, total submarine cable bandwidth capacity
increased from 53 Gbit/s in 1999 to 28,000 Gbit/s in 2007, and broadband
penetration reached 77 percent of households in 2007.
Internet Links
Whether via fiber optic cable or satellite, securing physical international
links is only the first step in procuring international Internet connectivity.
ISPs also need to arrange for exchanging and routing their traic. Such
arrangements ensure that Internet traic can be delivered anywhere in the
world, eliminating the need to have physical connections to every country.
An ISP will typically arrange to hand of its traic at the points where its
contracted physical connectivity terminates. Such arrangements are usually
of two kinds:
• A peering arrangement is where two ISPs freely exchange Internet traffic. The peering requirements of large ISPs often exceed the capability
Technologies to Support Deployment of Broadband Infrastructure
207
of smaller ISPs. For example, in order for an ISP operating in the AsiaPacific region to peer with Sweden’s TeliaSonera, it would have to provide traic equaling at least 500 Mbit/s and the ratio of inbound and
outbound traic exchanged between the ISP and TeliaSonera could not
exceed 3:1 (TeliaSonera 2010).
• A transit arrangement is where a small ISP pays a large ISP to provide
Internet traic exchange. The fee is generally a function of the traic or
physical connection. Smaller ISPs generally make transit agreements
with global IP carriers that can guarantee that their Internet traic will
get routed anywhere in the world. Global IP carriers with worldwide IP
networks are often referred to as “Tier 1” carriers, with the distinguishing characteristic that they do not generally pay any transit fees and have
the capability to reach all networks connected to the Internet (Van der
Berg 2008).
While large global carriers from developed countries operate most of the
Tier 1 networks, carriers from developing countries are starting to emerge
as significant players. India’s Tata Communications, for example, operates a
global network that makes it the world’s largest, farthest-reaching, wholesale Internet transit provider. It provides Internet connectivity to over 150
countries across six continents, with speeds up to 10 Gbit/s.12
Tata’s reach and Internet routing can be illustrated by running a trace
route from a broadband subscriber in Washington, DC, accessing a website
in Gaborone, Botswana. Once the packet reaches the west coast of the
United States, it is turned over to Tata for delivery to Botswana over physical connections transiting Singapore, India, and Johannesburg, South Africa
(figure 5.4).
Implementation Issues for International Connectivity
The huge costs of deploying undersea fiber optic and satellite networks
present a challenge for many developing countries and ISPs. Capacity on
these networks tends to be owned by a few carriers, and wholesale arrangements are not always optimum for smaller players. Likewise, a few global IP
carriers dominate wholesale access to the Internet, and smaller ISPs are
forced to pay one-way interconnection charges. Landlocked countries face
special problems since they lack coastal regions that could support a landing
station for undersea cable, while SIDSs face a connectivity challenge since
they are distant from undersea cables and lack large markets. In countries
with just one physical international link, access and pricing can become an
issue, particularly if the operator of the gateway is also a provider in other
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Figure 5.4
Internet Protocol Packet Route from Washington, D.C., to Gaborone, Botswana
IBRD 39041
JANUARY 2012
This map was produced by the Map Design Unit of The World Bank.
The boundaries, colors, denominations and any other information
shown on this map do not imply, on the part of The World Bank
Group, any judgment on the legal status of any territory, or any
endorsement or acceptance of such boundaries.
Source: Telecommunications Management Group, Inc.
parts of the supply chain and has an incentive to restrict competition or
demand high payments.
Countries are exploring various ways to overcome the challenges of
international connectivity, including the following:
• Forming public-private partnerships (PPPs) to establish direct international links. The high cost of connecting to international networks may be
insurmountable for smaller service providers. In Kenya, the government
took the lead in procuring an undersea fiber connection through an
agreement to construct a cable from Kenya to the United Arab Emirates
by enlisting service providers to take a shareholding in The East Africa
Marine System (TEAMS) cable (World Bank 2011).
• Establishing points of presence (POPs) in major Internet hubs. This can
be cheaper than paying transit fees. Sri Lanka Telecom established a
subsidiary in Hong Kong SAR, China, and acquired domestic and international voice and data services licenses allowing it to ofer undersea
Technologies to Support Deployment of Broadband Infrastructure
209
fiber optic cable capacity services from Hong Kong SAR, China, to Asia,
Europe, and North America.13
• Enhancing cross-border cooperation. It is critical for landlocked countries to coordinate and establish partnerships in order to ensure end-toend connectivity to undersea land stations. In Uganda, the ISP Infocom
leased fiber capacity from the country’s electrical utility, allowing it to
create a fiber backbone to the Kenyan border (Kisambira 2008). From
there, Infocom arranged with Kenya Data Networks (KDN) to transport
Ugandan Internet traic to a new undersea fiber optic cable landing in
Mombasa using KDN’s national backbone (Muwanga 2009).
• Improving redundancy and competition. Countries should establish
varied international connections to enhance redundancy if one link
fails and to enhance competition among international gateway operators. When diferent service providers ofer additional connections,
wholesale international bandwidth competition also increases and
prices generally fall. Even a small country like the Maldives, where it
was initially believed that even one connection to an undersea fiber
optic cable would be prohibitively expensive, has found that an open
telecommunications market with a liberal international gateway
license regime can motivate operators to invest in high-quality connectivity. The Maldives now has two links to undersea fiber optic cable
systems (box 5.1).
• Creating Internet exchange points (IXPs) close to data servers and international bandwidth. By establishing its own IXP, a country can reduce
expensive international traic by keeping local traic local and by attracting leading global content providers. For example, Google has a liberal
peering policy and has established POPs in several locations, including
recently in South Africa at the Cape Town Internet Exchange.14
Domestic Backbone
Backbone networks are a critical component of the broadband supply chain.
They consist of very high-speed, very high-capacity links that connect the
major nodes of the network—often the major cities of a country. These links
need to have large capacities because their function is to aggregate traic
from the diferent areas of the country and then carry it on to the next node
or city. Although the comparison is not perfect, broadband backbone
networks serve an analogous function to a country’s highways, allowing fast
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Box 5.1: Connecting the Maldives to the International Submarine
Cable Network
Like most small countries, the Maldives has
been relying on satellite technology to connect
to the outside world. The main reason is the
cost-effectiveness of satellite as compared to
fiber cable for the level of international traffic
generated by this small country. Global submarine optical fiber cable networks like
SE-ME-WE (South East Asia–Middle East–
West Europe) have passed the Maldives, but
the high cost of joining these cable consortiums prevented the country from reaping the
technical benefits of optical fiber technology.
Although satellite technology was sufficient in the past when voice telephony was
the driver of international communications,
the bandwidth consumed by data applications has surpassed the bandwidth usage of
voice applications. In 2005, the government
decided that it was economically feasible to
install an optical fiber system, and a consortium was established among three service
providers: Wataniya Telecom Maldives, Focus
Infocom Maldives, and Reliance Infocom of
India. The consortium, WARF Telecom International, brought the first fiber into the country in October 2006, which connects the
Maldives to the Falcon Network at a node
in Trivandrum, India. In early November,
Dhiraagu brought in a cable connecting the
Maldives to Colombo, Sri Lanka.
Source: Ibrahim and Ahmed 2008, 204.
connections between source and destination. Figure 5.5 shows how backbone networks have been deployed in Botswana.
In developed countries and liberalized telecommunications markets,
there may be more than one backbone network. Competing firms, for
example, often lay fiber cables across a country to compete with incumbent
long-distance carriers. This is not usually the case in developing countries,
where voice and data traic demands have not historically required such
high-capacity links. Recently, however, developing countries have been
promoting the development of high-capacity domestic backbones as part
of a broader efort to develop regional fiber networks. In Zimbabwe, for
example, incumbent TelOne announced in March 2011 that it had connected a fiber link to the EASSy system through Mozambique.15 The link is
the first phase of a planned national backbone rollout that will also include
the Harare-Bulawayo-Beitbridge and Harare-Chirundu routes.
It may not be necessary for each operator to have a backbone network
that covers the entire country. An operator may have an extensive network
covering one part of a country, but not others. Operators can interconnect
their respective networks in order to use the backbone network of another
by purchasing backbone network services or entering interconnection
Technologies to Support Deployment of Broadband Infrastructure
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Figure 5.5
Backbone Networks in Botswana
IBRD 39042
JANUARY 2012
20°E
25°E
ANGOLA
Kasane
ZAMBIA
BACKBONE FIBER OPTIC NETWORK
MAIN POPULATION CENTERS
CONCENTRATED POPULATIONS
DISTRICT CAPITAL
20°S
NAMIBIA
NATIONAL CAPITAL
DISTRICT BOUNDARIES
Nokeneng
INTERNATIONAL BOUNDARIES
Tsau
Maun
Nata
20°S
Sehithwa
Rakops
Orapa
Francistown
ZIMBABWE
Letlhakane
Ghanzi
Seruli
Sefophe
Serowe
Mamuno
Selebi-Phikwe
Palapye
Mahalapye
Kang
Tshane
Molepolole
Jwaneng
Khakhea
25°S
Kanye
Werda
Mochudi
GABORONE
25°S
Lobatse
SOUTH AFRICA
Tshabong
0
Bokspits
20°E
50
This map was produced by the Map Design Unit of The World Bank.
The boundaries, colors, denominations and any other information
shown on this map do not imply, on the part of The World Bank
Group, any judgment on the legal status of any territory, or any
endorsement or acceptance of such boundaries.
100
KILOMETERS
25°E
Source: Hamilton 2007.
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agreements. In many developed countries, the owners of the backbone networks and elements of the market are consolidated into a few large companies with very high-capacity networks, while the downstream components
tend to be smaller and more geographically disaggregated. But this is not
always the case; in many countries, especially those that have only recently
liberalized their markets, one dominant provider may still control both the
backbone and downstream (metropolitan and local access) networks.
The economic impact of backbone networks lies in their ability to reduce
costs by spreading them over higher volumes of traic. However, this benefit is highly dependent on the market situation in a given country. In Nigeria, for example, one of the reasons that the incumbent operator historically
has been able to maintain high wholesale prices for backbone services is the
lack of efective competition in the backbone services market (Williams
2010, 6). This is a pattern seen throughout Sub-Saharan Africa and in other
parts of the world, where neither competition nor regulation has efectively
controlled wholesale prices. Conversely, all broadband providers benefit
where there is competition and the backbone is open and interconnected to
multiple downstream providers, particularly for smaller players who can
buy network services at reasonable prices rather than build their own endto-end networks.
Countries face several challenges in deploying national backbone networks. One is the challenge of ensuring high-speed links throughout the
country to minimize the broadband divide. Because each country has unique
geographic (size, terrain) and demographic features, each will have to pick
those technologies that best fit its situation. As a result, diferent mixes of
technologies will be employed, and private investors and policy makers will
need to examine the trade-ofs between bandwidth needs, capital expenditures, operating expenses, upgradeability, and regulatory impacts, among
others.
National Links
The choice of a national backbone strategy is highly dependent on a country’s size, topography, regulatory environment, and broadband market size.
In reviewing the diferent technologies, it is important to bear in mind that
the selection of the appropriate backbone connectivity option often depends
on the distance to be covered and the forecasted capacity requirements
(table 5.1).
Fiber optic cable is typically perceived as the optimum solution for
national backbone connectivity given its high capacity and upgradeability.
Almost every operator in the world is upgrading its network backbone by
Technologies to Support Deployment of Broadband Infrastructure
213
Table 5.1 Optimum Choice of Backbone Technology, by Distance and Capacity
Distance
(kilometers)
Capacity (Mbit/s)
<8
8–450
> 450
<100
Satellite, microwave
Microwave
Fiber optic
>100
Satellite
Microwave, fiber optic
Fiber optic
Source: Williams 2010, 18.
installing fiber, although the extent and pace vary. Some operators have fully
fiber backbones, with other technologies kept for redundancy, while others
may have only a few kilometers of fiber for high-traic routes, supplemented
by satellite, microwave, or even copper cables.
Satellite is employed in some countries to provide national as well as
international backbone connectivity. Some countries have launched their
own satellites to ensure coverage, while in other countries, operators lease
capacity from satellite operators. Satellites are a particularly attractive solution for providing connectivity to remote areas where the cost of terrestrial
solutions can be high. They are not, however, an ideal solution for short,
high-traic routes.
Microwave remains a legacy solution for domestic backbone in many
countries. It is less expensive to deploy than fiber optic or satellite, although
operating expenses may be higher compared to other solutions. Although
capacity is less than fiber optic, current traic demands may not be high
enough to justify switching from microwave. Rights-of-way and space constraints are also less of an issue with microwave.
Internet Exchanges
In addition to the physical infrastructure needed to transmit broadband
traic, national broadband traic needs to be routed and exchanged using
IP. One key issue here is Internet exchanges. Internet exchanges provide a
venue for transferring traic between diferent ISPs that can help to reduce
the cost of international connectivity. An Internet exchange can also connect to local data centers featuring content and applications that reduce the
need for international connectivity.
The economic rationale for establishing an IXP is based on the tradeof between the cost of the physical connection to the IXP and the cost of
an international connection to process the local traic. There are two main
models for implementing an IXP (figure 5.6). With a Layer 2 IXP, each ISP
provides its own router, and traic is exchanged via an Ethernet switch.
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Figure 5.6
Internet Exchange Point Models
Layer 2 exchange
ISP 6
ISP 5
ISP 4
IXP
services:
TLD DNS,
routing
registry
looking
glass,
news,
etc
IXP
management
network
Ethernet switch
ISP 1
ISP 3
ISP 2
Layer 3 exchange/wholesale transit ISP
ISP 6
ISP 5
IXP
services:
TLD DNS,
routing
registry
looking
glass,
news, etc
ISP 1
ISP 4
IXP router
ISP 2
IXP
management
network
ISP 3
Source: Cisco, “Internet Exchange Point Design,” http://www.pacnog.net/pacnog6/IXP/IXP-design.pdf.
Note: TLD DNS = Top-Level domain - domain name system.
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215
With a Layer 3 IXP, traic is exchanged between members through a single router. ISPs make a physical connection to the IXP typically using a
bandwidth of between 100 Mbit/s and 1 Gbit/s. In addition to the cost of
the physical connection to the IXP, ISPs usually pay a joining fee plus a
monthly fee that is sometimes based on the size of the connection or the
volume of traic.
There are several administrative models for IXPs. One of the most
common is where a group of ISPs operates the IXP, typically through
some kind of association. Another model is commercial, where an unaffiliated third party (for example, not an ISP) provides IXP services. In
some countries, nonprofit organizations operate IXPs for government or
educational Internet traic. In some cases, large ISPs operate Internet
traic exchange points, which often involve the large ISP charging for
transit. Large ISPs have also been known to disrupt an IXP’s efectiveness
either by not participating or by underprovisioning their link to the IXP
(Jensen 2009). Countries might consider facilitating the development of
IXPs and providing support or appropriate regulation to help to overcome resistance to their establishment and efective operation. In Chile,
for example, the government requires all ISPs to interconnect (Cavalli,
Crom, and Kijak 2003).
Where competitively priced international fiber optic connectivity is
available, an IXP can attract international participants such as foreign ISPs
and major content companies. This can lower the cost of international connectivity through peering with foreign ISPs as well as the potential for storing heavily accessed content locally. For example, Google participates in
various IXPs through its Global Cache service, which stores its applications and content, such as YouTube, closer to the end user (Guzmán 2008).
Implementation Issues for Domestic Backbone Networks
As countries build out their backbone networks, several issues must be
considered. For example, the initial fixed costs are significant. A study by
the Organisation for Economic Co-operation and Development (OECD),
for example, concluded that around 68 percent of the costs in the first year
of rolling out a fiber network to the premises are in the civil works associated with the digging of trenches and the installation of cables (OECD
2008). In countries with large physical distances to cover, this fixed cost
may be substantial and diicult to justify when demand is uncertain. The
risk associated with the high up-front costs of fiber backbones can be alleviated through various mechanisms such as risk guarantees and demand
aggregation.
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The average cost of a backbone network (that is, the unit cost per subscriber) also varies enormously, depending on the subscribers’ geographic
location. In urban areas, where subscribers are concentrated, the average
cost of backbone networks is much lower than in smaller towns or rural
areas. In practice, the ability of a backbone network to reduce costs is one
of the key determinants of the financial viability of providing broadband
services. The absence of a backbone network in a particular area of a
country to aggregate traic and thereby reduce costs may mean that
broadband services are unlikely to be commercially viable. In such
instances, policy makers and network planners will need to agree on
which cities and towns should be connected and over what period of time
the work can be accomplished.
The high cost of installing backbone networks in developing countries
has often resulted in incomplete national coverage, with operators deploying microwave networks on some routes. A single fiber optic network with
wider coverage is often a more optimum solution and can be as cost-efective. An analysis for Nigeria found that a single high-capacity backbone had
significantly lower costs than traic carried over multiple low-capacity networks. However, operators in many countries have generally not been very
cooperative in sharing backbone networks. Governments are overcoming
such resistance through various arrangements for deploying fiber optic
backbone networks:
• Borrowing from multilateral and bilateral agencies. Developing countries
unable to aford the immediate cost of deploying national fiber optic
backbone networks have been turning to development agencies and
bilateral development partners for funding. For instance, Uganda borrowed from the China Export and Import Bank to finance construction
of its national data transmission backbone infrastructure (Uganda, Parliament of 2009).
• Encouraging the existing operator to build out the network. Current service providers can be incentivized to extend their backbones and ofer
cost-based wholesale connectivity. In Sri Lanka, the government decided
to work with the incumbent to extend its fiber optic network rather than
to build its national backbone network from scratch.16 In Pakistan, a universal service fund is used to subsidize the cost of fiber optic rollout to
rural areas. Awards from the fund will extend some 8,413 kilometers of
fiber optic cable to underserved locations.17
• Leveraging electrical utilities and railways. Companies in other infrastructure sectors such as electricity and railways have large fiber optic
Technologies to Support Deployment of Broadband Infrastructure
217
networks running along grids or railroad tracks. National connectivity can
be enhanced by facilitating telecommunications regulations that allow
electricity providers and railways to act as wholesale bandwidth providers. Kenya Power and Lighting Company Limited, an electrical utility, is
leasing dark fiber running along its backbone to service providers.18 In
Norway, the fiber backbone of Ventelo spans the entire railway infrastructure, covering 17,000 kilometers. Ventelo is the second largest wholesale
provider in Norway, ofering dark fiber and collocation services.19
• Ensuring open access. Despite the general benefits of competition, it
may be ineicient in some areas to have competing backbone networks. In such cases, a single network can be built, but protections
must be put in place to ensure competition among service providers,
including nondiscriminatory access for all downstream providers.
Singapore, for example, has imposed structural separation for the
deployment of its next-generation national broadband network (NBN)
in an efort to minimize infrastructure duplication, increase wholesale
transparency, and promote retail competition for the benefit of consumers (IDA 2010).
Metropolitan Connectivity
Beyond network backbones, connectivity is needed to connect smaller
towns and villages to the backbone and provide links in and around metropolitan areas. These links are sometimes called the “middle mile.” Such
links can be provided by satellite, microwave, or fiber optic cable, with the
latter becoming increasingly common due to its high capacity. Metropolitan area networks are often established for high-traic locations such as
major cities by routing traic along high-capacity fiber optic rings. This
part of the broadband supply chain also includes links used to transport
traic from distant points, such as a wireless base station, to an aggregation
point in the network, such as a mobile telephone switching oice or other
network node (United States, FCC n.d.). This particular function in wireless networks is often referred to as “backhaul” (that is, hauling traic back
to the network).
Regional and Metropolitan Links
In many cases, as governments develop policies to encourage backbone
development or the rollout of local access networks, the metropolitan
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portion of the broadband supply chain can be forgotten. But building out the
two ends of the network—backbone and last mile—will be inefective unless
capacity exists in the middle to tie all the pieces together. Hence policies to
address middle-mile and backhaul problems, such as promotion of facilities-based competition or open-access requirements, are just as important
as policies in other parts of the network.20
Metropolitan ring networks are a special case worth noting. In most
countries, the majority of broadband traic is generated in urban areas. Initial links are typically point-to-point, but over time this architecture can
become increasingly complex and ineicient. The topology of a ring network is highly practical for metropolitan areas where a significant amount
of traic is destined for other users in the area. A ring network simplifies
network architecture by connecting premises in central business areas
together over fiber optic cable. Traic flows along the ring, with each node
examining every data packet (figure 5.7). The standard for metropolitan ring
networks is Institute of Electrical and Electronics Engineers (IEEE) 802.17.21
One of the dangers with ring networks is that if a node goes down or the
fiber optic cable breaks, the whole ring could fail. This can be overcome by
transmitting the information in two directions (clockwise and counterclockwise) or by building in other types of redundancy. Rings have tended to use
Synchronous Optical Network/Synchronous Digital Hierarchy (SONET/
SDH) technology for transport. Wavelength Division Multiplexing (WDM)
is emerging as a transport standard because of its eiciency and integration
with gateways to national and international backbones.
Implementation Issues for Metropolitan Connectivity
Many of the implementation issues associated with the middle mile are the
same as those involved with backbone development, namely cost and competition. However, the choices of where such links should be built (or, perhaps more accurately, upgraded, since lower-capacity links may exist) and
how the network should be designed can be more diicult, both politically
and technically. Government interventions are usually part of a plan to
connect rural areas and are combined with other measures to roll out
networks to those areas as well as part of metropolitan government initiatives. Even if broadband networks reach rural areas, most countries
have a significant gap in broadband speeds between rural and urban
areas. For instance, in Europe most of the lowest broadband download
speeds (256–512 kbit/s) are found in rural areas.
In the context of limited funds for network build-out, choices will have
to be made that balance the government’s desire to spread the benefits of
Technologies to Support Deployment of Broadband Infrastructure
219
220
Figure 5.7 Metro Fiber Ring
multi-tenant
building
carrier a
100FT
OC3
100BT
GgE
OC48
carrier b
hospital
carrier c
GgE
10GgE
OC48
carrier hotel
customer
location
metro fiber
ring
T1
100FX
cell tower
fiberlight* metro fiber
fiberlight* equipment
dedicated to customer
(lightsourceTM private
networks)
end office
GgE
fiber channel
is a OC3
school
Source: Fiberlight, http://www.fiberlight.com/wp-content/uploads/2010/05/diag_opttrans1.jpg.
data center
GgE
fiber channel
broadband widely with the reality that not all areas can be served right
away. In Australia in 2009, for example, the government announced a $A
250 million “blackspots” program designed to bring high-capacity links to
regional centers without adequate connectivity, holding a consultation to
determine which regions should receive new links (Australia, Department
of Broadband, Communications, and the Digital Economy n.d.).
Network design issues can also be diicult. In most developed countries
and in countries with a liberalized telecommunications framework, competing alternative carriers use the dominant carrier’s network through
leases or open-access requirements and build their own networks around
the dominant carrier’s physical facilities. But as new broadband links are
installed at the metropolitan level, an important issue to resolve is determining how many points of interconnection will be ofered to the new
broadband facilities and where the points will be located. In Australia, there
has been a strong debate over how many points of interconnection should
be ofered, with the government and the National Broadband Network
Company originally suggesting 14, while the competition authority states
that 120 interconnection points are needed.
Local Connectivity
In the broadband supply chain, local access networks are those that directly
connect end users to broadband services, the so-called “last mile.” Several
wireline and wireless broadband technologies are used today to support
local access networks. Having multiple broadband access options in a country increases consumer choice, stimulates intermodal competition, enhances
quality and innovation, and is generally associated with lower retail prices.
However, countries may not be able to use all possible technological choices
for historical, technical, regulatory, or financial reasons. As governments
seek ways to promote broadband development, they will need to recognize
the strengths and limitations of their existing level of infrastructure
development—both for its upgrade possibilities as well as for developing
appropriate incentive and competition policies.
Wireline Access Technologies
This section examines wireline broadband access technologies, including
digital subscriber line (DSL), cable modem, fiber to the premises (FTTP),
and other options. The first three account for almost all wireline local access
technologies worldwide (figure 5.8).
Technologies to Support Deployment of Broadband Infrastructure
221
Figure 5.8 Number of Broadband Subscribers Worldwide, 2007–09, by Type of
Wireline Technology
subscribers (in millions)
350
300
250
200
150
100
50
09
4
3
09
Q
09
2
Q
09
1
Q
08
4
cable modem
Q
08
Q
3
08
Q
2
08
DSL
Q
1
07
Q
4
07
Q
3
07
Q
2
Q
Q
1
07
0
FTTx
Source: Point-Topic.
Digital Subscriber Line
The public switched telephone network (PSTN) line running to the subscriber’s premise has traditionally been copper wire, with a bandwidth of 3
to 4 kilohertz (kHz). This narrowband channel ofers an analog carrier originally configured to provide a single telephone call. Two “twisted-pair” copper wires are used to support duplex communications (that is, the ability to
send and receive at the same time). The PSTN has also supported the capability for narrowband Internet access, with subscribers using a modem to
dial up an ISP.
DSL technologies use special conditioning techniques to enable broadband Internet access over that same PSTN copper wire. Transmission
speeds vary as a function of the subscriber’s distance from the telephone
company switching facilities, the DSL version, the extent of fiber in the network, and other factors. DSL requires that the bandwidth over the copper
line be separated between voice and data. A quartz crystal splitter is used to
filter the data channel when using the shared copper local loop for telephone service. Similarly the voice channel must be filtered when the line is
used for broadband Internet access. Nonetheless, users can continue to
make and receive PSTN telephone calls when using DSL data services. As is
the case with dial-up access to the Internet, subscribers must have a modem
installed between their computer and the copper wire. A DSL modem modulates upstream signals to the Internet and demodulates downstream traic
to the subscriber.
In addition to retrofitting their copper lines, telephone companies also
have to upgrade their switching facilities in order to split traic into voice
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Broadband Strategies Handbook
and data streams and to route data traic between subscribers and the
Internet. Traic exchanged with the Internet is routed through a digital
subscriber line access multiplexer (DSLAM). This device aggregates (multiplexes) upstream traic from DSL subscribers onto high-speed trunk
lines to be delivered to the Internet. Similarly, the DSLAM disaggregates
(demultiplexes) traic arriving from the Internet and routes it to the
intended subscriber.
DSL has gone through several evolutions supporting increasing speeds
and distances (table 5.2). The technology is standardized within the International Telecommunication Union (ITU) under Study Group 15 and the G
series of ITU-T recommendations.22 An asymmetric digital subscriber line
(ADSL) maintains the frequency bandwidth of voice (that is, below 4 kHz)
for telephony service. Broadband is transmitted on two other frequency
bands; one is allocated to a low-speed upstream channel (25 to 138 kHz),
and the other is allocated to a high-speed downstream channel (139 kHz to
1.1 MHz). The theoretical maximum downstream bit rate of 6 Mbit/s and
maximum upstream rate of 640 kbit/s are defined by the standard.
In the ADSL2 standard, more eicient modulation and coding are implemented to improve the bit rate, quality, and, to a lesser degree, coverage. The
standard defines maximum bit rates of about 8 Mbit/s downstream and 800
kbit/s upstream. The data rate is increased with ADSL2+ through doubling
the frequency bandwidth by including the frequency band between 1.1 and
2.2 MHz. This results in a standard of 16 Mbit/s downstream and 800 kbit/s
upstream.
Very high-speed digital subscriber line (VDSL) allows for much greater
symmetrical data rates accomplished by using improved modulation techniques and adding more frequency bandwidth to the copper wire. However,
the distances from the switch to the end user must be short or fiber must
be installed to the curb. The VDSL2 standard overcomes some of these
Table 5.2 DSL Connection Speeds, by Type of Line
Type of line
Upstream speed
ITU-T standard
Asymmetric DSL (ADSL)
6 Mbit/s
640 kbit/s
G.992.1
ADSL2
8 Mbit/s
800 kbit/s
G.992.3
ADSL2+
16 Mbit/s
800 kbit/s
G.992.5
Very high-speed DSL (VDSL)
52 Mbit/s
52 Mbit/s
G.993.1
100 Mbit/s
100 Mbit/s
G.993.2
VDSL2
Downstream speed
Source: Adapted from ITU 2008.
Note: The speeds shown are those specified in the standard, not necessarily those experienced by end users.
Technologies to Support Deployment of Broadband Infrastructure
223
challenges by extending distances and reducing interference, while increasing bit rates up to 100 Mbit/s for distances less than 300 meters.
In Israel, incumbent operator Bezeq has been rolling out VDSL2 as part
of its NGN deployment, with coverage to around half the households by the
end of 2010 (Bezeq Group 2011). It was advertising bandwidth of 100 Mbit/s
for DSL connections on its website in March 2011. Bezeq plans to ofer up to
200 Mbit/s through VDSL bonding, which uses two copper pairs per subscriber.23
While DSL technology has evolved with ever-increasing data rates and
remains the most popular wireline broadband technology in terms of subscriptions, its biggest constraint is bandwidth deterioration as the distance
from the exchange increases, as shown in figure 5.9.
Cable Modem
Cable modems provide subscribers with access to broadband services over
cable television (CATV) networks. CableLabs developed standards for cable
modem technology in the late 1990s.24 The technical guidelines are called
Data over Cable Service Interface Specification (DOCSIS). The DOCSIS
guidelines have been progressively enhanced in terms of functionality (for
example, support for IPv6) and speed (figure 5.10). The latest version is 3.0,
with a slightly diferent European implementation (EuroDOCSIS). DOCSIS
has been approved as an ITU recommendation.25
The first DOCSIS specification was version 1.0, issued in March 1997,
which uses the subscriber’s copper wire telephone line for upstream traffic. Beginning in April 1999 with the DOCSIS 1.1 revision, cable operators
Figure 5.9
Speed of DSL and Distance from Exchange
25
theoretical max
speed at 2 km is
circa 14Mbit/s
Mbit/s
20
15
10
5
0
0
1
2
3
distance from exchange (km)
ADSL2+
4
5
ADSL1
Source: Ofcom.
Note: Theoretical maximum speed at 2 kilometers is about 14 Mbit/s.
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Broadband Strategies Handbook
Figure 5.10
Cable Modem Connection Speeds, by Specification
250
200
Mbit/s
200
145
150
100
50
30
10
0
DOCSIS 1
DOCSIS 2
DOCSIS 3
EuroDOCSIS 3
Source: Adapted from Motorola, “Planning an Effective Migration to DOCSIS® 3.0,” http://www.motorola
.com/staticfiles/Video-Solutions/ultrabroadbandsolutions/pdf/Migration_to_DOCSIS30.pdf.
added quality of service capabilities and began installing fiber optic cables
originating at the cable operator’s switching facility (that is, the head
end) and terminating at a junction box near the subscriber. This combination of coaxial cable and fiber optic is referred to as a hybrid fiber
coaxial (HFC) network. Due to increased demand for symmetric services
such as IP telephony, DOCSIS 2.0 was released in December 2001 to
enhance upstream transmission speeds. Most recently, the specification
was revised to increase transmission speeds significantly (DOCSIS 3 and
EuroDOCSIS 3).
Older CATV networks cannot sustain higher bandwidths without significant upgrades. CATV operators that have recently built out their networks generally have a high-capacity bandwidth network from which
they can partition a portion for broadband data service. Internet access
via CATV networks uses a modem, and broadband access is typically
called cable modem service. Television content is separated from Internet traic at the head end. A cable modem termination system (CMTS)
exchanges digital signals with cable modems and converts upstream traffic into digital packets that are routed to the Internet. The CMTS receives
traic from the Internet and routes it to the appropriate cable modem of
the subscriber. Because CATV networks use a cascade of amplifiers to
deliver video programming, cable modem service has fewer limitations
than DSL with regard to how far subscribers can be located from the
head end.
Allocating additional frequency has enabled bandwidth increases for
cable modem broadband. For example, adding a 6 MHz channel for
Technologies to Support Deployment of Broadband Infrastructure
225
Internet access provides download speeds typically between 1.5 and 15
Mbit/s and upload speeds of 384 kbit/s to 3 Mbit/s. Channel bonding
adds an additional 6 MHz channel to increase speed. However, unlike
DSL where subscribers are provided a dedicated connection between
their home and the provider’s switch, cable modem broadband capacity
is shared among nearby users, which can cause a marked deterioration in
service at peak times.
Until recently, the world’s fastest cable broadband network was in Japan,
where J:Com ofers speeds of 160 Mbit/s based on DOCSIS 3 (Hansell
2009). It achieved this rate through a US$20 per subscriber upgrade, considerably cheaper than building out a new fiber to the home (FTTH) network. In 2011, however, several companies began rolling out EuroDOCSIS
services at speeds up to 200 Mbit/s (Nastic 2011).
Although some countries have a significant number of CATV subscribers, cable broadband penetration on a worldwide basis remains relatively
low, particularly in developing countries. A main reason is that cable operators have not made the necessary investment in HFC networks. Another
factor is that regulatory restrictions in some countries forbid cable operators from providing Internet or voice services. In many countries, however, cable has never achieved significant market penetration, and satellite
TV or digital terrestrial TV ofers a substitute for multichannel television
distribution.
Fiber to the Premises
Fiber to the premises refers to a complete fiber path linking the operator’s
switching equipment to a subscriber’s home (FTTH) or business (FTTB).
This distinguishes FTTP from fiber to the node (FTTN) and fiber to the
curb (FTTC), which bring fiber optic cable part of the way to a subscriber’s
premises (figure 5.11). FTTN and FTTC are therefore not subscriber access
technologies like FTTP, but are used to extend the capabilities of DSL and
cable modem networks by expanding fiber optic cable deeper into the network. Again, the exact technology a company or government chooses to
deploy or promote will depend on the unique circumstances in each country. FTTP ofers the highest speeds of any commercialized broadband technology. However, it is not widely available around the world, with the FTTH
Council reporting that only 26 economies had at least 1 percent of their
households connected.26
FTTP sometimes replaces existing copper wire or coaxial cable
connections but is also increasingly popular for greenfield building projects (where a new housing or commercial development is being built and
no telecommunications infrastructure presently exists). FTTP can be
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Broadband Strategies Handbook
Figure 5.11
Diagram of Various FTTx Systems
optical fibers
metallic cables
FTTN
>1,000 ft. (300 m)
FTTC
>1,000 ft. (300 m)
FTTB
FTTH
Source: Wikipedia, http://upload.wikimedia.org/wikipedia/commons/3/32/FTTX.png.
Note: The building on the left represents the central office; the building on the right represents one of
the buildings served by the central office. The dotted rectangles represent separate living or office
spaces within the same building.
designed with various topologies: point-to-point, where the optical fiber
link is dedicated to traic from a single subscriber; point-to-multipoint,
where fiber optic cables branch to more than one premise and thus share
traic; and a ring, where the fiber optic cable is designed in a closed loop
that connects various premises. The information flowing over the fiber
optic cable is guided by protocols that have been standardized by the
IEEE or the ITU (table 5.3).
Technologies to Support Deployment of Broadband Infrastructure
227
Table 5.3 FTTP Access Protocols
Access protocol
Name
Standard
EFM
Ethernet in the first mile
IEEE 802.3ah
EP2P
Ethernet over point-to-point
IEEE 802.3ah
EPON
Ethernet passive optical network
IEEE 802.3ah
BPON
Broadband passive optical network
ITU-T G.983
GPON
Gigabit passive optical network
ITU-T G.984
Source: Fiber to the Home Council, “Definition of Terms,” January 9, 2009, http://www.ftthcouncil
.eu/documents/studies/FTTH-Definitions-Revision_January_2009.pdf.
Most FTTP implementations are based on passive optical network using
point-to-multipoint topology serving multiple premises with unpowered
optical splitters. Traic is handled using an optical line terminal at the service provider’s central oice and optical network terminals, also called optical network units, at the subscriber’s premises.
Although speeds on FTTP networks can be symmetrical and ofer up to 1
Gbit/s, many service providers provide substantially lower asymmetrical
speeds (often because the national backbone cannot handle high speeds).
City Telecom, a broadband operator in Hong Kong SAR, China, for example,
has over half a million homes connected to a fiber network. It ofers 1 Gbit/s
fiber service for about US$25 per month.27
Other Wireline Broadband
Although DSL, cable modem, and FTTP account for nearly all subscriptions worldwide, other technologies include Ethernet-based local area networks (LANs) and broadband over powerline (BPL). Wireline LANs are
used to connect many subscribers in a large building such as apartments or
oices. Subscribers are typically connected directly to a fiber or Ethernet
backbone where broadband access is distributed through the LAN. Some
countries report LAN subscriptions as a separate wireline broadband
access category. LANs can be wireline (using coaxial cable or twisted pair
[Cat3 or 10Base-T]) or wireless, based on the IEEE 802.3 or 802.11 standards. They are typically used within a home or a public access facility.
BPL uses the electricity distribution network to provide high-speed
Internet access. BPL operates by diferentiating data traic from the flow of
electricity. This separation occurs by using a much higher frequency to
carry data through the copper wires, coupled with encoding techniques that
subdivide data traic into many low-power signals or that spread the bitstream over a wide bandwidth. The former encoding scheme is known as
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Broadband Strategies Handbook
Orthogonal Frequency Division Multiplexing (OFDM), and the latter is a
type of spread spectrum technology. In both technologies, digital signal processing integrated circuits help to keep data traic intact, identifiable, and
manageable.
BPL has so far failed to achieve wide-scale commercial success, partly
because of interference issues and partly because of uncertainty over
whether and how data transmission can take place at significant volumes
over an entire electricity distribution grid. The problem stems from when
transformers are used to reduce the voltage of electricity to that used by
residential and business users. Because a BPL distribution grid requires
repeaters that amplify data signals, such networks can be costly to build.
In addition, BPL reportedly can interfere with some radio transmissions,
and there is no international standard for BPL. Finally, a big barrier in
many low-income nations is the lack of a reliable electrical grid to carry
the data signals.
A building’s internal electrical wiring can also be used as a type of LAN.
Devices with Ethernet ports can be interconnected using plug-in adapters
over electrical wiring to create home and oice networks. The HomePlug
Powerline Alliance has created an adapter standard and reports that it had
sold over 45 million such devices by March 2010, accounting for 75 percent
of the market.28 The ITU covers the use of electrical wiring for home networking in its G.hn Recommendation.29
Wireless Access Technologies
The immense success of cellular telephone service attests to the attractiveness of wireless technologies as a local access solution. Factors in their success include being generally easier and cheaper to deploy than wireline
solutions and consumers’ fondness for mobility. Technological innovations
ofer the near-term opportunity for widespread mobile access to the Internet, as next-generation wireless networks have the technological capability
to ofer bit rates at near parity with current wired options, though not yet at
the same price points. The ability of carriers to ofer such services will
depend on whether suicient radio spectrum can be allocated for mobile
broadband services and whether innovations in spectrum conservation
techniques can help operators to meet consumer demand.
Early Wireless Broadband Standards
EDGE. Although an International Mobile Telecommunications-2000
(IMT-2000) standard, EDGE initially ofered less than broadband speeds
Technologies to Support Deployment of Broadband Infrastructure
229
(120 kbit/s, according to the GSMA).30 A newer version of EDGE (Evolution) can achieve top speeds of up to 1 Mbit/s, with average throughput of
around 400 kbit/s (Ericsson 2007), but EDGE is not considered a true
mobile broadband solution. It can be attractive since it provides an upgrade
path for global system for mobile (GSM) communications networks, allowing higher speeds than GPRS,31 particularly where investment is constrained,
regulators have not released mobile broadband spectrum, or gaps in coverage need to be filled.
CDMA2000 1X. Code Division Multiple Access (CDMA) 2000 refers to the
CDMA2000 1X and CDMA2000 Evolution Data Optimized (EV-DO) technologies that are part of the IMT-2000 standards. CDMA2000 builds on
second-generation (2G) CDMA technologies, known as ANSI-95 or cdmaOne, and uses a 1.25 MHz channel size. CDMA2000 attractions include
backward compatibility with earlier standards, use for either wireline or
mobile wireless, and spectrum flexibility due to small channel size and
availability in a range of frequencies including 450 MHz, the only IMT2000 standard commercially available in that band (figure 5.12; CDMA
Development Group 2000).
CDMA2000 1X supports circuit-switched voice up to and beyond 35
simultaneous calls per sector and high-speed data of up to 153 kbit/s in
both directions. Although it was the first IMT-2000 technology to be commercially adopted, it is not considered mobile broadband due to the low
speed. However, CDMA2000 EV-DO uses packet-switched transmission
specifically designed and optimized for mobile broadband networks.
There have been three revisions to the EV-DO standard (Rel. 0, Rev. A, and
Rev. B), each ofering higher speeds than its predecessor (table 5.4). In
December 2011, there were 122 Rel. 0 networks in 67 countries, 138 Rev. A
networks in 60 countries, and 10 Rev. B networks in 9 countries, serving
186 million subscribers around the world.32 One of the fastest EV-DO networks is in Indonesia, where operator Smart Telecom is using Rev. B to
achieve an average download speed of 8.6 Mbit/s and a peak download
speed of 9.3 Mbit/s.33 Box 5.2 describes the experience of Mexico and
Sweden with CDMA 450 MHz.
IMT-2000
The first two generations of mobile networks were characterized by analog
and then digital technology. There were no global standards, and a variety of
technologies evolved. In an efort to standardize third-generation (3G)
mobile systems expected to be commercialized around the year 2000,
the ITU developed the International Mobile Telecommunications (IMT)
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Broadband Strategies Handbook
Figure 5.12
Frequency Bands Used by CDMA2000
IMT
450-470a
IMT
1710-1885
IMT
698-806/862a,b
IMT
1885-2025
IMT
2110-2200
IMT
2300-2400a
IMT
2500-2690
IMT
3400-3600a
IMT 806-960
1 GHz
CDMA450
CDMA800
CDMA850
2 GHz
CDMA1.7
CDMA1.9
3 GHz
CDMA2.1
CDMAAWS
Source: CDMA Development Group, http://www.cdg.org/technology/cdma2000/spectrum.asp.
a. Identified at WRC-07.
b. Includes 698–862 MHz band in region 2 (Americas), 790–862 MHz band in Region 1 (Europe, Middle East, Africa, Russia and CIS), and 790–960 MHz identified for IMT in
Region 3 (Asia-Pacific).
Note: CDMA = Code Division Multiple Acess; IMT = International Mobile Telecommunications.
231
Table 5.4 EV-DO Peak and Average Speeds
Peak speeds
Average user speeds
Number of
countries
EV-DO
version
Download
Upload
Download
Upload
Rel. 0
2.4 Mbit/s
153 kbit/s
300–700 kbit/s
70–90 kbit/s
67
Rev. A
3.1 Mbit/s
1.8 Mbit/s
600–1,400 kbit/s
500–800 kbit/s
60
Rev. B
14.7 Mbit/s
5.4 Mbit/s
1.8–4.2 Mbit/s
1.5–2.4 Mbit/s
9
Source: CDMA Development Group 2011.
Box 5.2: CDMA 450 MHz for High-Speed Rural Internet Access
One of the attractions of 450 MHz spectrum
is its use for rural communications. Because
of the lower frequency range, coverage is
wider, and fewer base stations are required
so that investment costs are significantly
lowered. CDMA2000 1X and EV-DO operate
in 450 MHz, and their use is helping to extend high-speed connectivity to rural areas.
Although the number of subscriptions may
not be high, they are often the only highspeed networks available in small rural communities, where they can have an important
socioeconomic impact.
In Mexico, the incumbent Telmex won the
government’s Fund for Telecommunications
Social Coverage with its bid to provide services in some 8,500 rural communities with
around 7 million low-income inhabitants. It is
using CDMA450 where each base station
covers more than 80 kilometers, providing
150 kbit/s Internet connections. In addition
to regular post- and prepaid subscriptions
(around 180,000 by late 2009), Telmex also
set up some 500 “digital agencies,” which offer personal computers, printers, and Internet access to the public.
In Sweden, CDMA2000 1xEV-DO in the
450 MHz band is attributed with reducing by
half the number of people with no access to
broadband between 2009 and 2010. Over
99 percent of Swedes living in sparsely populated regions have access to the CDMA
450 MHz network. Service is provided by
Net 1, which has built a nationwide CDMA
network in the 450 MHz frequency band,
providing up to 25 times more coverage per
transmitter than Universal Mobile Telecommunications System (UMTS) networks using the 900 MHz, 1,800 MHz, and 2,100
MHz bands. As a result, the 450 MHz network is available in places where it is not
economically viable for competitors to provide coverage. Net 1 is using EV-DO Rev. A,
offering download speeds of 3.1 Mbit/s for
SKr 229 (US$32) per month.
According to the CDMA Development
Group, CDMA450 can be profitable at average revenue per user of less than US$8 per
month, and handsets are available for less
than US$25.
Sources: CDMA Development Group 2009, 2011; Swedish Post and Telecom Agency 2011; Swedish Post and
Telecom Agency, “Broadband Survey, PTS Statistics Portal,” http://www.statistik.pts.se/broadband; Net1, “Teknik,”
http://www.net1.se/omnet1/teknik.aspx; Net 1, “Mobilt Bredband,” http://www.net1.se/privat/bredband.aspx.
Note: Swedish kroner converted to U.S. dollars using 2010 annual average exchange rate.
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Broadband Strategies Handbook
family of standards. Despite the goal of standardization, five significantly different radio interfaces for IMT-2000 were approved in ITU-R Recommendation M.1457 in 1999. WiMAX was added to M.1457 in 2007 (table 5.5).34
W-CDMA/UMTS. Wideband CDMA (W-CDMA), also referred to as UMTS,
is characterized by the use of Frequency Division Duplexing (FDD). It
uses paired spectrum in 5 MHz wide radio channels. W-CDMA is often
marketed as an upgrade from GSM, although it requires new base stations
and initially new frequency allocation. However, since W-CDMA handsets
are generally dual-mode to support GSM, roaming between the two networks is typically seamless. Given its ties to the dominant GSM standard,
W-CDMA has been the most successful of the IMT-2000 technologies in
terms of subscriptions.
Table 5.5 IMT-2000 Radio Interfaces
Radio interface
technology
CDMA direct spread
Common name
W-CDMA/UMTS
Comment
Original frequencies in standard: 1,920–1,980 MHz as
uplink and 2,110–2,170 MHz as downlink
Later added: 2.6 GHz, 1,900 MHz, 1,800 MHz, 1,700
MHz, 1,500 MHz, 900 MHz, 850 MHz, and 800 MHz
bands as well as a pairing of parts, or whole, of
1,710–1,770 MHz as uplink with whole, or parts, of
2,110–2,170 MHz as downlink
CDMA multicarrier
CDMA 2000
Including 1X and EV-DO. As the 3G-evolution path for 2G
TIA/EIA-95-B standards, assumption is that 3G would
use the same 2G frequencies
CDMA TDD
TD-SCDMA
Original frequencies in standard: 1,900–1,920 MHz and
2,010–2,025 MHz for both uplink and downlink operation.
Added later: 1,850–1,910 MHz, 1,910–1,930 MHz, and
1,930–1,990 MHz
TDMA single-carrier
EDGE
Provides an evolution path for GSM/GPRS so assumption
is that implementation would use the same 2G frequencies
FDMA/TDMA
DECT
Not widely used as a mobile cellular technology
OFDMA TDD WMAN
WiMAX (IEEE
802.16)
Frequencies not mentioned in standard. Generally
commercially implemented in the 2.3, 2.5/2.6, and 3.5
GHz bands
Source: ITU, Radio Communication Sector, Recommendation M.1457.
Note: FDMA = Frequency Division Multiple Access; OFDMA = Orthogonal Frequency Division Multiplexing; TDD = Time Division Duplexès; TDMA = Time Division Multiple Access; TD-SCMA = Time Division–Synchronous Code Division Multiple Access;
TIA/EIA = Telecommunications Industry Association/Electronics Industry Association; WMAN = Wide area Metropolitan Access
Network.
Technologies to Support Deployment of Broadband Infrastructure
233
High-Speed Packet Access refers to the various software upgrades to
achieve higher speeds on W-CDMA networks (table 5.6).35 Initial speed
improvements are listed below, although some operators have been able to
achieve even higher data rates through various enhancements:
• High-Speed Downlink Packet Access (HSDPA) increases download data
rates. Speeds achieved top 14.4 Mbit/s, with most operators ofering
speeds up to 3.6 Mbit/s. Upload speeds are 384 kbit/s.
• High-Speed Uplink Packet Access (HSUPA) increases upload rates.
Upload speeds are increased to a maximum of 5.7 Mbit/s.
• HSPA+ (also known as HSPA Evolved) ofers significant speed improvements. HSPA+ enables speeds up to 42 Mbit/s in the downlink and
11 Mbit/s in the uplink. In March 2011, there were 128 HSPA+ networks
in 65 countries, including 95 HSPA+ networks ofering peak rates of
21 Mbit/s, 11 ofering peak rates of 28 Mbit/s, and 22 ofering peak rates
of 42 Mbit/s.36
TD-SCDMA. Some of the key characteristics of Time Division–Synchronous
Code Division Multiple Access (TD-SCDMA) are that it uses Time Division
Duplexing (TDD), unlike W-CDMA, which uses FDD, and does not require
paired spectrum, increasing spectrum flexibility. The word “synchronous”
refers to the fact that the base station synchronizes upstream signals. Interference is reduced and capacity is increased; however, there is reduced
coverage compared to other technologies. China is the only country where
TD-SCDMA has been deployed on a significant scale (box 5.3). Launched
by China Mobile on January 7, 2009, the network covered 656 cities by the
end of 2010, with 20,702,000 subscribers (China Mobile 2011).
WiMAX. WiMAX consists of several products based on IEEE 802.16 standards for wireless broadband. Originally designed as a wireline backbone
Table 5.6 W-CDMA and HSPA Theoretical Data Rates
Technology
Download speed
Upload speed
W-CDMA
384 kbit/s
384 kbit/s
HSDPA
14.4 Mbit/s
384 kbit/s
HSUPA
Specification for upload and not download
5.7 Mbit/s
HSPA
42.0 Mbit/s
11.0 Mbit/s
Source: GSMA, “About Mobile Broadband,” http://www.gsmamobilebroadband.com/about/.
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Box 5.3: Three 3G Technologies in China
China is one of the few countries in the world
with three kinds of mobile broadband networks. In early January 2009, the Ministry of
Industry and Information Technology awarded 3G licenses to three different operators in
China for three different IMT-2000 technologies. China Mobile received permission to
use the homegrown TD-SCDMA technology,
becoming the world’s first implementation of
this standard. China Unicom was approved
to operate 3G using W-CDMA, which has
been widely deployed in many countries.
Meanwhile, China Telecom was awarded a
3G license using CDMA2000 technology. It
already operated a CDMA2000 network, and
the new license allowed it to upgrade to
faster EV-DO speeds. Competition between
these three technologies has rapidly boosted the take-up of 3G: from no subscribers in
2008 to 10 million in 2009 and to 47 million
by the end of 2010. Although the networks
are incompatible for now, it is hoped that
they will evolve to the next-generation mobile standard, LTE.
Source: China Mobile.
technology, the mobile version of WiMAX (802.16e) is a more recent incarnation that was approved by the ITU as an IMT-2000 standard in 2007.37
Distinguishing features of WiMAX include IP packet switching, the use of
Scalable Orthogonal Frequency Division Multiple Access (SOFDMA),
unpaired spectrum using TDD, and operation in the 2.3, 2.5/2.6, and 3.5 GHz
bands. Top theoretical speeds for wireless WiMAX are 46 Mbit/s on the
uplink and 7 Mbit/s on the downlink, roughly equivalent to HSPA+ networks (Pinola and Pentikousis 2008).
Although mobile WiMAX is standardized as an IMT-2000 technology
by the ITU, it is often used as a fixed wireless access technology (IEEE
802.16; Marks 2010). One of the early implementations was the Korean
variation called WiBro (WiMax Forum 2008). The government issued
spectrum in the 2.3/2.4 GHz band in 2005, and WiBro was commercially
launched in April 2007. By the end of 2010, WiMAX networks were used
in 149 countries covering more than 823 million people.38 The number of
WiMAX subscribers around the world was estimated at 13 million in
December 2010 (Maravedis 2011).
IMT-Advanced
The ITU has been working on standards for the next generation of wireless
systems for several years. In March 2008, it issued a circular letter specifying the provisions for International Mobile Telecommunications-Advanced
(IMT-Advanced) networks, which are generally defined as systems “that
Technologies to Support Deployment of Broadband Infrastructure
235
go beyond those of IMT-2000” (Blust 2008). One of the most significant
requirements is peak data rates of 100 Mbit/s for high mobility and 1 Gbit/s
for low mobility. In October 2010, the ITU announced that two technologies
met the requirements for IMT-Advanced: LTE-Advanced and WirelessMAN-Advanced (ITU 2010).
LTE and LTE-Advanced. Development of the LTE mobile network standard
started in 2004. One goal was to achieve higher data speeds to support the
rising growth of Internet access over mobile phones. Targeted speeds were
initially 100 Mbit/s for downloads and 50 Mbit/s for uploads. LTE uses
OFDM for downloads and Single Carrier-Frequency Division Multiple
Access (SC-FDMA) for uploads. LTE is designed for frequency flexibility,
with bandwidth requirements ranging from 1.25 and 20 MHz and support
for both paired (FDD) and unpaired (TDD) bands.
LTE standards have been developed under the auspices of the 3G Partnership Project (3GPP). The 3GPP Release 8, issued in December 2008,
forms the basis for initial LTE deployments. It has theoretical maximum
download speeds of 300 Mbit/s and upload speeds of 75 Mbit/s. In order to
meet global requirements for fourth-generation (4G) mobile networks,
3GPP developed LTE Release 10 and Beyond (LTE-Advanced), which was
submitted to the ITU in October 2009.
Although LTE was developed within the auspices of the 3GPP, whose
work includes technical specifications for GSM, W-CDMA, and HSPA technologies, there is no straightforward migration path. So far, LTE deployments have required the purchase of new equipment by operators and new
devices by users.
The world’s first LTE deployment was by TeliaSonera when it simultaneously launched networks in Stockholm, Sweden, and Oslo, Norway, at
the end of 2009 using the 2.6 GHz frequency band.39 Verizon’s LTE network launch in the United States in December 2010 is noteworthy for using
the 700 MHz frequency band.40 Verizon reported that speeds were 5–12
Mbit/s download and 2–5 Mbit/s upload. According to 4G Americas, 19
commercial LTE networks were operating worldwide in 14 countries in
March 2011.
WirelessMAN-Advanced. WirelessMAN-Advanced is standardized as IEEE
802.16m and ofers backward compatibility with IEEE 802.16e, an IMT2000 technology. It meets the IMT-Advanced data rate requirements with a
theoretical 180 Mbit/s downlink using a 20 MHz TDD channel (WiMax
Forum 2010). Multiple channels can be aggregated to support 1 Gbit/s
speeds (Jiaxing and Guanghui 2010).
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Wi-Fi
Wi-Fi refers to the IEEE 802.11 family of standards specifying wireless local
area networking over 2.4 and 5 GHz frequency bands. Wi-Fi is not typically
deployed as a commercial local access network; it is used most often to
redistribute a broadband connection to a wider group of users in homes,
oices, and “hotspots.” Wi-Fi technology has gone through several updates
that provide varying speeds depending on the frequency and version used
(table 5.7).
Reportedly, one in 10 people around the world uses Wi-Fi.41 Its success is
attributed to several factors, including embedding Wi-Fi chips in portable
computers and smartphones, the fact that it operates on a license-exempt
(unlicensed) basis,42 and the relative ease of installation compared to wired
networks, with the majority of the upgrade costs lying with the consumer
rather than the operator.
In addition to sharing broadband connectivity with devices in home
and oice networks, Wi-Fi is being used for the following significant
applications:
• Subscription-based access to broadband. Many wireline ISPs around the
world ofer Internet access through Wi-Fi hotspots at airports, cofee
shops, and other locations. This is seen as a complement to their traditional service.
• Municipal Wi-Fi networks. Large-scale Wi-Fi networks have been
deployed in some urban areas around the world to provide free Internet
access. Wireless@KL in Kuala Lumpur, Malaysia, provides free 512 kbit/s
access throughout the city; faster speeds are enabled through payment.43
The Kuala Lumpur City Hall and the Malaysian Communications and
Multimedia Commission sponsor the KL Wireless Metropolitan project
in collaboration with Packet One Networks, an ISP. Some 1,500 hotspots
have been deployed in the city.
Table 5.7 Wi-Fi Speeds
Wi-Fi technology
Frequency band (GHz)
Maximum data rate
(Mbit/s)
802.11a
5
54
802.11b
2.4
11
802.11g
2.4
54
802.11n
2.4, 5
450
Source: Wi-Fi Alliance, “Discover and Learn,” http://www.wi-fi.org/discover_and_learn.php.
Technologies to Support Deployment of Broadband Infrastructure
237
• Relief for congested mobile networks. Mobile operators were initially lukewarm about handsets with Wi-Fi capability, since users could bypass
more expensive cellular network data oferings. That view is changing
due to the rapid growth in demand for data over mobile cellular networks
and consequent capacity constraints. Today, many mobile operators
embrace Wi-Fi as a way to oload 3G-network traic as a complement to
their regular commercial service. For example, AT&T in the United States
is automatically switching smartphone users to Wi-Fi when they are
within range of a hot spot (Fitchard 2010).
Satellite
Aside from its role in the international and backbone segments of the
broadband supply chain, satellites are also used to provide direct subscriber access to broadband services, particularly in remote areas where
wireline broadband is not available and there is no terrestrial high-speed
wireless coverage.44 The subscriber uses a satellite antenna or dish that is
connected to a satellite modem. Speeds vary depending on the satellite
technology, antenna, and the weather. Latency can be an issue for some
applications (for example, gaming). Although they serve specific niches,
satellites do not ofer the same price to quantity ratio as other broadband
solutions. For example, in March 2011, the highest speed available from
a leading retail broadband satellite provider in the United States was
5 Mbit/s for US$300 per month.45
Implementation Issues for Local Connectivity
Countries face numerous challenges in deploying local broadband access
networks, including whether and how physical infrastructure can be shared,
quality of service, and spectrum.
Local Loop Unbundling
In many countries, an incumbent, former monopoly wireline provider
often controls the only extensive local access network. In such cases, regulators have sought ways to introduce more competition and innovation
into the local access market. Local loop unbundling (LLU) has been one of
the main methods implemented in developed nations for service providers to gain access to the incumbent’s switched telephone network in order
to provide DSL service. There are three main types of implementation:
• Full unbundling. The entire copper local loop is leased to a service provider. The service provider installs its own broadband equipment either
in, or close to, the incumbent’s site.
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Broadband Strategies Handbook
• Line sharing. The copper local loop is shared between the incumbent and
the other service provider. The incumbent provides voice telephony over
the lower-frequency portion of the line, while the other provider ofers
DSL services over the high-frequency portion of the same line.
• Bit stream access. DSL service is essentially sold at wholesale prices to
the service provider, who in turn resells it to customers. The incumbent
operates all of the key infrastructure components in the loop.
Quality of Service
There is often a significant diference between advertised speeds and actual
speeds achieved by users (figure 5.13). The problem is that the advertised
speeds are usually based on the theoretical capability of the technology or
standard. In reality, however, numerous factors make such speeds very
diicult or even impossible to achieve, including network congestion or (for
wireless networks) radio interference.
In an efort to manage network quality, many providers are moving away
from unlimited broadband packages and adopting so-called “fair use policies” in order to control and regulate traic. One practice is to use data caps
where providers establish a threshold on the amount of data that can be
downloaded per month. Once the cap is exceeded, either the subscriber
Figure 5.13 Difference between Advertised and Actual Speeds in the
United Kingdom, 2009 and 2010
average download throughput
and headline speeds
(Mbit/s)
the gap between actual and headline speeds has increased
12
10
58%
of average
headline
speed
8
6
4
11.5
7.1
5.2
4.1
2
0
average
headline
speed
average
actual
speed
April 2009
46%
of average
headline
speed
average
average
actual
headline
speed
speed
May 2010
Source: Ofcom, “The Communications Market 2010: UK,” http://www.ofcom.org.uk/static/cmr-10/
UKCM-5.10.html.
Note: Headline speeds are based on data from the operator, while actual speed are based on measurement data from SamKnows for all panel members with connections in April 2009 and May 2010 (singlethread tests).
Technologies to Support Deployment of Broadband Infrastructure
239
has to purchase additional download volume or the subscriber’s speed is
reduced or, in the worst-case scenario, service is terminated for that month.
Some operators establish diferent caps for domestic and international
traic. Another practice is to control the use of high-bandwidth applications or access to traic-intensive sites by restricting or degrading service.
This practice has been banned in some countries as a violation of network
neutrality. Providers have been known to “throttle” service by limiting the
subscriber’s bandwidth when they have exceeded data caps or tried to
access traic-intensive sites.
These network management practices have been contentious since they
are often covered by the “small print” of customer contracts and many users
are not aware of them. In an efort to alleviate consumer concerns about
service quality, some governments monitor and compile reports on service
quality. The Telecommunications Regulatory Authority (TRA) in Bahrain,
for example, publishes data on wireline broadband performance (Bahrain,
Telecommunications Regulatory Authority 2011). The TRA measures
upload and download speeds for diferent broadband packages, domain
name system (DNS) response (time taken in milliseconds to translate a
domain name to its IP address), and ping (an echo request sent to a server to
test latency). In other countries, although governments do not publish quality of service reports, they ofer sites where consumers can check their
speed.46
Spectrum
One of the biggest constraints on wireless broadband deployment and usage
is the availability of spectrum. Some countries have yet to allocate mobile
broadband spectrum, have not allocated certain frequencies, or have not
allocated suicient spectrum.
Although the number of frequency bands in which mobile broadband
operates has increased, not every technology operates in every band.
Therefore, by not licensing certain bands, countries prevent the availability
of some mobile broadband technologies. Another issue is that even slight
diferences in frequency assignments can make a diference in equipment
compatibility, afecting prices and roaming. Growing mobile broadband
demands are placing increasing pressure on spectrum availability. Providers use several techniques to increase capacity, including splitting cells,
upgrading to more eicient technology, and oloading some uses onto
other networks like Wi-Fi. However, there may come a point where technology cannot fix the capacity shortage and additional spectrum is required.
Some countries have already begun examining how to use the various
bands identified for broadband, including the so-called “digital dividend”
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spectrum that can be made available as the result of the transition from
analog to digital television. One promising solution could be cognitive
radio, where devices reconfigure themselves according to whatever spectrum is available, while avoiding interference. The first call in the world
using cognitive radio was made in Finland in 2010 (Centre for Wireless
Communications 2010).
In looking at spectrum, regulators need to determine the best procedure
to follow in awarding spectrum, whether to impose limits on the amount of
spectrum a single operator can hold, and whether to allow operators to
engage in secondary trading. These issues are discussed in more detail in
chapter 3.
Notes
1. MPLS packetizes and labels information coming from diferent network
protocols so that the underlying architecture does not have to be changed; it
then routes the information to its destination.
2. See ITU, “ITU-T’s Definition of NGN,” http://www.itu.int/en/ITU-T/gsi/ngn/
Pages/definition.aspx.
3. KPN, “Facts and Figures Q4 2010,” http://www.kpn.com/corporate/aboutkpn/
investor-relations/publications/Financial-publications.htm.
4. Intelsat, “Satellite Basics,” http://www.intelsat.com/resources/satellite-basics/
how-it-works.asp.
5. ViaSat, “Meeting the Demand for Media-Enabled Satellite Broadband
Satellite Services,” http://www.viasat.com/files/assets/Broadband%20
Systems/MediaEnabledSatellite9-09.pdf.
6. Telesat, “Satellite’s Growing Role in Data Networking,” http://www.telesat.ca/
en/Satellites_Growing_Role_in_Data_Networking.
7. RADWIN, “IP Backhaul,” http://www.radwin.com/Content.aspx?Page=ip_
backhaul.
8. NEC, “Pasolink (Egypt),” http://www.nec.com/global/onlinetv/en/business/
pasolink_l.html#NF-project.
9. TeleGeography, “Submarine Cable Map,” http://www.telegeography.com/
telecom-maps/submarine-cable-map/index.html.
10. EASSy, “EASSy Ownership,” http://www.eassy.org/ownership.html. EASSy’s
largest shareholder is WIOCC, which is owned by 14 African telecommunications operators and partially funded by several development financial
institutions, including the World Bank.
11. In this context, ISPs include wireless operators that ofer Internet connectivity.
12. Tata Communications, “IP,” http://www.tatacommunications.com/providers/ip/.
13. SLT Hong Kong, “SLT Hong Kong Is Gateway to East Asia and US,” http://
www.slthkg.com/Company.htm.
Technologies to Support Deployment of Broadband Infrastructure
241
14. Internet Service Providers’ Association, “CINX Users,” http://www.ispa.org.za/
inx/cinx-users/.
15. Technology Zimbabwe, “TelOne’s Fibre Connection on EASSy Now Live, Total
2.48 Gbps Lit,” March 31, 2011, http://www.techzim.co.zw/2011/03/
telone%E2%80%99s-fibre-connection-on-eassy-now-live-total-2-48-gbps-lit/.
16. “Sri Lanka to Set up a National Backbone Network.” Sri Lankan News,
February 13, 2011, http://firstlanka.com/english/news/sri-lanka-to-set-up-anational-backbone-network/.
17. Pakistan Universal Service Fund, “Optic Fiber Project,” http://www.usf.org.pk/
project.aspx?pid=6.
18. Kenya Power and Lighting Company, “KDN Leases KPLC Dark Fibres,” Press
Release, March 18, 2010, http://www.kplc.co.ke/fileadmin/user_upload/
kplc09_files/UserFiles/File/Press%20Release%20-%20KDN%20leases%20
KPLC%20dark%20fibres.pdf.
19. Ventelo, “Capacity Product Line,” http://www.ventelo.no/wholesale-english/
capacity.html.
20. See, for example, numerous comments filed generally in a U.S. Federal Communications Commission proceeding that was established to develop the National
Broadband Plan (United States, FCC 2009).
21. IEEE Standards, “IEEE 802.17™: Resilient Packet Rings,” http://standards.ieee
.org/about/get/802/802.17.html.
22. ITU, “Study Group 15 at a Glance,” http://www.itu.int/net/ITU-T/info/sg15.
aspx.
23. Nokia Siemens Networks, “Bezeq to Ofer World-First 200 Mbit/S Broadband
While Cutting OPEX,” http://www.nokiasiemensnetworks.com/pt/portfolio/
customer-successes/success-stories/bezeq-to-ofer-world-first-200-Mbit/
s-broadband-while-cutting-OPEX.
24. CableLabs, “Home Page,” http://cablelabs.com/.
25. ITU, “J.112: Transmission Systems for Interactive Cable Television Services,”
http://www.itu.int/rec/T-REC-J.112/en.
26. Fiber to the Home Council, “Global FTTH Councils’ Latest Country Ranking
Shows Further Momentum on All-Fiber Deployments,” February 10, 2011,
http://www.ftthcouncil.org/en/newsroom/2011/02/10/global-ftth-councilslatest-country-ranking-shows-further-momentum-on-all-fiber-.
27. Global Telecoms Business, “How to Be a Fat Dumb Pipe at $25 a Month for One
Gigabit,” February 2, 2011, http://www.globaltelecomsbusiness.com/Article/2760589/Interview-NiQ-Lai-and-Ivan-Tam-of-City-Telecom.html.
28. HomePlug Powerline Alliance, “HomePlug® Powerline Alliance Announces
Milestones on 10th Anniversary as Powerline Technology Leader,” March 22,
2010, http://www.homeplug.org/news/pr/view?item_key=a633eafa198466341a
a340327092bc76f8169135.
29. ITU, “New ITU Standard Opens Doors for Unified ‘Smart Home’ Network,”
Press Release, November 15, 2009, http://www.itu.int/newsroom/press_
releases/2009/46.html.
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Broadband Strategies Handbook
30. According to the GSMA, “GPRS ofers throughput rates of up to 40 kbit/s. . . .
Using EDGE, operators can handle three times more subscribers than GPRS,
triple their data rate per subscriber.” See “GPRS” and “EDGE” on the GSMA
website, http://gsmworld.com/technology/index.htm.
31. In theory, the speed limit of GPRS is 115 kbit/s, but in most networks it is
around 35 kbit/s.
32. CDMA Development Group, “CDMA Statistics,” http://www.cdg.org/
resources/cdma_stats.asp.
33. ZTE, “ZTE Launches the World’s First Commercial EV-DO Rev.B Network in
Indonesia,” Press Release, January 18, 2010, http://wwwen.zte.com.cn/en/
press_center/news/201001/t20100118_179633.html.
34. There have been 10 revisions of Recommendation ITU-R M.1457. The latest is
M.1457-9 of May 2010. See ITU (2010).
35. GSMA, “About Mobile Broadband,” http://www.gsmamobilebroadband.
com/about/.
36. 4G Americas, “HSPA+ and LTE: Fastest Speeds for Mobile Broadband Today,”
March 18, 2011, http://www.3gamericas.org/index.cfm?fuseaction=pressrelease
display&pressreleaseid=3084.
37. ITU, “ITU Defines the Future of Mobile Communications,” Press Release,
October 19, 2007, http://www.itu.int/newsroom/press_releases/2007/30.html.
38. WiMAX Forum, “WiMAX™ on Track to Cover One Billion by EOY 2011,”
February 15, 2011, http://www.wimaxforum.org/news/2761.
39. TeliaSonera, “TeliaSonera First in the World with 4G Services,” Press Release,
December 14, 2009, http://www.teliasonera.com/News-and-Archive/Pressreleases/2009/TeliaSonera-first-in-the-world-with-4G-services/.
40. Verizon, “Blazingly Fast: Verizon Wireless Launches the World’s Largest 4G
LTE Wireless Network,” December 4, 2009, http://news.vzw.com/
news/2010/12/pr2010-12-03.html.
41. Wi-Fi Alliance, “Organization,” http://www.wi-fi.org/organization.php.
42. The ITU has designated the 2,450 MHz and 5,800 MHz bands for industrial,
scientific, and medical applications that “must accept harmful interferences.”
This is often interpreted to mean that they are considered unregulated. See
ITU-R, “Frequently Asked Questions,” http://www.itu.int/ITU-R/terrestrial/
faq/index.html#g013.
43. Wireless@KL, “About,” http://www.wirelesskl.com/?q=about.
44. In the United States, users in remote areas without wireline broadband
availability were ofered a discount for satellite broadband Internet access
(including no installation or equipment charges) through the American
Recovery and Reinvestment Act. See HughesNet, “Frequently Asked Questions,” http://consumer.hughesnet.com/faqs.cfm.
45. HughesNet, “Business Solutions,” http://business.hughesnet.com/explore-ourservices/business-internet/business-internet-high-speed.
46. United States, FCC, “About the Consumer Broadband Test (Beta),” http://www
.broadband.gov/qualitytest/about/.
Technologies to Support Deployment of Broadband Infrastructure
243
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Line.” ITU, Geneva, May. http://www.itu.int/dms_pub/itu-t/oth/1D/01/
T1D010000040003PDFE.pdf.
———. 2010. “Recommendation ITU-R M.1457-9: Detailed Specifications of the
Terrestrial Radio Interfaces of International Mobile Telecommunications-2000.” ITU, Geneva, May. http://www.itu.int/rec/R-REC-M.1457/e.
Jensen, Mike. 2009. “Promoting the Use of Internet Exchange Points: A Guide to
Policy, Management, and Technical Issues.” Internet Society, Reston, VA.
http://www.isoc.org/internet/issues/docs/promote-ixp-guide.pdf.
Jiaxing, Xiao, and Fan Guanghui. 2010. “802.16m: Ready for 4G.” Communicate,
June. http://www.huawei.com/en/static/hw-076500.pdf.
Kisambira, Edris. 2008. “Infocom Uganda Leases Fiber from Power Utility.”
Network World, June 6. http://www.networkworld.com/news/2008/060608infocom-uganda-leases-fiber-from.html?inform?ap1=rcb.
Maravedis. 2011. 4G Counts Quarterly Report. Issue 13. Miami: Maravedis,
January. http://www.maravedis-bwa.com/en/reports.
Technologies to Support Deployment of Broadband Infrastructure
245
Marks, Roger. 2010. “IEEE 802.16 WirelessMAN Standard: Myths and Facts.”
IEEE 802.16 Working Group on Broadband Wireless Access Standards, June 29.
http://wirelessman.org/docs/06/C80216-06_007r1.pdf.
Muwanga, David. 2009. “Telecom Costs to Drop as Fibre Optic Cable Lands in
Kampala.” New Vision, July 5. http://www.newvision.co.ug/D/8/220/686891.
Nastic, Goran. 2011. “Get Launches EuroDOCSIS 3.” CSI Magazine, January 19.
http://www.csimagazine.com/csi/Get-launches-EuroDOCSIS-3.php.
OECD (Organisation for Economic Co-operation and Development). 2008. “Public
Rights-of-Way for Fibre Deployment to the Home.” OECD, Paris. http://www
.oecd.org/dataoecd/49/9/40390753.pdf.
Pinola, Jarno, and Kostas Pentikousis. 2008. “Mobile WiMAX.” Internet Protocol
Journal 11 (2, June). http://www.cisco.com/web/about/ac123/ac147/archived_
issues/ipj_11-2/112_wimax.html.
Swedish Post and Telecom Agency. 2011. “The Broadband Survey 2010.” Swedish
Post and Telecom Agency, Stockholm. http://www.pts.se/en-gb/Documents/
Reports/Internet/2011/The-Broadband-Survey-2010/.
TeliaSonera. 2010. “TeliaSonera International Carrier Global Peering Policy.”
TeliaSonera, Stockholm, January. http://www.teliasoneraic.com/Ourservices/
IP/IPTransit/index.htm.
Uganda, Parliament of. 2009. “Government to Borrow US$ 61,059,125 and
US$15,391,511 from China Export and Import Bank (EXIM) for Phase II and III
of the National Data Transmission Backbone Infrastructure and E-Government
Project.” Parliament of Uganda, July 30. http://www.parliament.go.ug/index
.php?option=com_docman&task=doc_details&gid=58&Itemid=102.
United States, FCC (Federal Communications Commission). n.d. “Appendix C,
Glossary.” In National Broadband Plan. Washington, DC: FCC. http://www
.broadband.gov/plan/appendices.html#s18-3.
———. 2009. “Notice of Inquiry, in the Matter of a National Broadband Plan for Our
Future.” FCC 09-31 (rel. April 8). FCC, Washington, DC.
Van der Berg, Rudolf. 2008. “How the ‘Net Works: An Introduction to Peering and
Transit.” Ars Technica, September. http://arstechnica.com/old/content/
2008/09/peering-and-transit.ars/4.
Williams, Mark. 2010. “Broadband for Africa: Developing Backbone Communications Networks.” World Bank, Washington, DC.
WiMAX Forum. 2008. “WiMAX Enables Wireline Incumbent to Become Leading
Provider of Broadband Wireless Data Services in Korea.” WiMAX Forum.
http://www.wimaxforum.org/sites/wimaxforum.org/files/document_library/
kt_wibro_v1.6.pdf.
———. 2010. “IEEE 802.16m Approved as IMT-Advanced Technology.” WiMAX
Forum, October 25. http://www.wimaxforum.org/printpdf/2650.
World Bank. 2011. “Kenya Broadband Case Study.” World Bank, Washington, DC.
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CHAPTER 6
Driving Demand for Broadband
Networks and Services
In general terms, demand for broadband services, applications, and content
is thriving and may not appear to need a large amount of government efort
to spur adoption by those who have broadband access. In 2010, for example,
40 percent of all consumer Internet traic was video,1 which was 1.6 times
the amount of video traic in the previous year and consisted mostly of private sector–created or user-generated video. Broadband use is growing
quickly and is heavily driven by private sector content. Nevertheless, governments have sought to complement supply-side policies that focus on
building infrastructure with demand-side eforts that seek to drive demand
for broadband access and services. Although demand stimulation is particularly relevant in the early stages of broadband market development, it is also
important in more mature broadband markets, where some potential users,
such as elderly and less-educated persons, may not be taking advantage of
the benefits ofered by broadband.2
Demand facilitation or stimulation refers to eforts to boost the use of
broadband by raising awareness of its possible benefits as well as making it
afordable and more attractive to users. As discussed in chapter 1, supplyside strategies focus on the “availability” of broadband by promoting
investment in broadband technologies and infrastructure, based on the
assumption that there is unsatisfied demand or that demand will grow to
247
justify those investments. Demand-side strategies focus on expanding the
market through programs designed to encourage broadband Internet
access and adoption. With more visible demand, infrastructure providers
are more likely to make the investments needed to spur greater broadband
development.
Demand facilitation strategies can be included in top-down national
plans, can originate from grassroots eforts, or can involve the public and
private sectors as well as civil society.3 The scope of such strategies may be
targeted at one particular obstacle to access, such as the high cost of connections or computer ownership, or may be broader, resulting in more comprehensive programs that attempt to address multiple barriers (Hauge and
Prieger 2009). The Dominican Republic, for example, established legislation to address not only the financing mechanisms needed to achieve universal broadband, but also the deployment of infrastructure and the
acquisition and installation of terminal equipment such as computers, personal digital assistants (PDAs), smartphones, and other devices that enable
consumers to use a broadband connection (San Román 2009). Demand
facilitation may also involve packaging broadband with applications that
appeal to specific sectors of the economy or groups within society.
This chapter analyzes the various approaches that can be used to facilitate additional demand for broadband services. These approaches can be
roughly characterized into three categories—awareness, afordability, and
attractiveness. Governments seeking to promote broadband services will
need to address all three of these issues. In Malaysia, for example, a new
National Broadband Initiative (NBI) was launched in March 2010. With
regard to spurring demand for broadband, the NBI focuses specifically on
these three issues. As stated by the Malaysian Communications and Multimedia Commission (MCMC),
The approach for creating awareness will be through continuous government and private sector involvement in the awareness programs and capacity building initiatives. In order to improve the attractiveness of the online
content, eforts will be focused to enhance and promote e-government,
e-education, and e-commerce. Eforts are also on the way to digitalize the
traditional information resources such as library, archive, etc. to be available
online. The afordability factor and bridging the digital divide is being
improved by developing various incentives to reduce the broadband access
costs and widening the community access.4
Figure 6.1 summarizes the mechanisms that can be used to spur demand.
See chapter 2 for an introduction to the three pillars of awareness, afordability, and attractiveness.
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Figure 6.1
The Three Pillars of Facilitating Broadband Demand
Awareness
• Encourage use of education in schools to promote digital literacy
• Encourage and train small and medium enterprises on the
benefits of broadband
• Provide training on security and privacy
• Support secure e-transactions
Affordability
• Lower user terminal service costs by reducing import
duties and other taxes or through targeted subsidies
• Provide broadband equipment to educational institutions
at cost or via subsidies
Attractiveness
• Support local, relevant internet content in local languages
• Create e-government and other e-applications (such as for
health, education, and agriculture)
Source: World Bank.
Awareness
Awareness of the benefits of broadband and the capability to use broadband are critical first steps in building demand for broadband services. In
order for people to use broadband successfully, they must have the necessary interest and competency. This is sometimes referred to as digital literacy, which has been defined as “using digital technology, communications
tools, and/or networks to access, manage, integrate, evaluate, and create
information in order to function in a knowledge society” (Educational
Testing Service 2002). Digital literacy ideally makes users aware of and
capable of accessing broadband applications and services. This, in turn,
widens the information available to them, provides new ways of learning,
and creates new employment opportunities.
There is a spectrum of digital skills that increase in complexity as users
gain expertise. Therefore, competency in information and communication
technology (ICT) skills can range from a basic understanding, which
enables users to access information using broadband, to deeper technical
knowledge, which enables them to create and disseminate their own information, including new applications and services. This is acknowledged in
definitions of the diferent stages of digital literacy (figure 6.2).
People learn digital literacy skills in various ways and institutional
settings. These range from watching friends, to being taught in schools,
Driving Demand for Broadband Networks and Services
249
increasing complexity of
knowledge and expertise
Figure 6.2
Elements of Digital Literacy
Elements
Definitions
Access
Knowing about and knowing how to collect and retrieve
information
Manage
Applying an existing organizational or classification scheme
Integrate
Interpreting and representing information: summarizing,
comparing, and contrasting
Evaluate
Making judgments about the quality, relevance, usefulness, or
efficiency of information
Create
Generating information by adapting, applying, designing,
inventing, or authoring information
Source: Educational Testing Service 2002.
to participating in special programs (figure 6.3). The range of skills and
settings vary and overlap. For example, some people may choose simply
to acquire basic skills in a formal academic environment, while others
may choose to pursue a higher degree of ICT knowledge. Although there
are a variety of institutional settings for gaining knowledge about the use
of broadband networks, self-training plays an ongoing lifetime role. This
is particularly important since the services and applications available
over broadband networks continually evolve.
There are several challenges to ensuring that people are digitally literate. Some studies suggest that the main way people learn about ICTs
is through self-study (that is, through their own initiative and assistance
from friends, family, and colleagues) rather than through formal courses.
Motivating people to continue to learn on their own is essential in order
for them to adapt to the constant evolution in broadband services and
applications without always having to resort to more formal training.
This is related to the interaction of digital literacy with “value addition.”
Although training is important, it does not necessarily build peoples’
understanding of how broadband and associated technologies can
transform their lives. This lack of understanding risks creating a “value
divide” in which the people who have broadband diverge widely in their
ability to derive value from it. As broadband spreads to other platforms,
particularly mobile phones in developing countries, the notion of digital
literacy, which has typically been associated with learning on personal
computers (PCs), must be adapted to entail familiarity with using applications and services delivered via various mobile devices such as smartphones and tablets.
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Figure 6.3
How People Obtain ICT Training in Europe, 2007
Individuals who have obtained ICT skills through
percentage of individuals
0
10
20
30
40
50
60
courses,a on own initiative
courses,a on demand of employer
formalized educational institution
self-study using books, CD-ROMs, etc.
informal assistanceb
self-study (learning by doing)
Source: Telecommunications Management Group, Inc., adapted from the Eurostat Information Statistics database, http://epp.eurostat.ec.europa.eu/portal/page/portal/information_society/data/database.
a. Training courses and adult education centers.
b. Informal assistance from colleagues, relatives, and friends.
Basic Digital Literacy
People must have basic skills (one of the components of “access” in figure 6.2)
if they are to reach the point where they can teach themselves.5 Basic and
some advanced skills are increasingly ofered to students in primary and
secondary educational institutions, while adults or other potential users
can obtain skills through community learning centers or similar institutions. Advanced skills are typically developed in postsecondary environments, including training provided by the private sector and through more
informal methods. In addition, remedial basic skills development may be
needed by those who have been bypassed in the acquisition of ICT skills
through formal primary and secondary education—either because they did
not complete their schooling or because ICT training was not available.
Digital Literacy through Education
To enhance awareness of the benefits of broadband, countries may need
to impart basic digital literacy skills to their people as part of, or associated with, their general educational programs. The extent of such need
varies depending on the level of sophistication of the ICT sector and
Driving Demand for Broadband Networks and Services
251
overall educational background of a country’s inhabitants. Quite often,
those lacking basic digital literacy tend to be the “at risk” groups, such as
the elderly, women, the uneducated, people with disabilities, and the
unemployed. These groups need to be included in plans to enhance digital literacy. This is particularly critical given that, as the average level of
broadband penetration in a country grows, the social and economic costs
of being excluded from access also increases.
The European Union (EU) has acknowledged the importance of digital
literacy through various programs over a number of years. A key thrust of
the EU’s i2010 Strategy is “e-Inclusion”—the ability and willingness of individuals and communities to participate in the information society. In 2005,
for example, there were large disparities in Internet use between the average population and persons over 65, those with low education, and the
unemployed.6 The EU set a target of cutting in half the gap in digital literacy
between the average population and those groups as well as immigrants,
people with disabilities, and marginalized young people. It proposed the following actions to improve digital literacy:
• Ofering digital literacy courses through formal or informal education
systems tailored to the needs of groups at risk of exclusion
• Undertaking digital literacy actions through partnerships with the private sector and in conjunction with other related educational initiatives
and regularly upgrading skills to cope with technical and economic
developments
• Supporting qualification methods measuring digital literacy achievement.
A review of progress since a 2006 EU conference on an inclusive information society found increases in broadband connections, use of the
Internet, and digital literacy. There were advances in Internet use for disadvantaged groups, particularly the unemployed and marginalized youth
(European Commission 2008). A significant factor was the number of
digital inclusion initiatives launched by member countries as well as by
civil society and the private sector (Council of the European Union 2008).
Nevertheless, it was recognized that more eforts were needed to reduce
digital exclusion; additional measures were incorporated into Pillar 6
(enhancing digital literacy, skills, and inclusion) in the Digital Agenda for
Europe adopted in May 2010.7
Developing countries have also adopted a variety of programs to provide
training on how to use computers and the Internet. As illustrated in box 6.1,
Sri Lanka is enhancing the digital literacy of its people by providing training
to vulnerable groups through schools and computer learning centers.
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Box 6.1: Sri Lanka’s Approach to Computer Literacy
In Sri Lanka, a fifth of the population was
“computer literate” in 2009, according to a
survey by the Census and Statistics Department, but gaps exist depending on age, education, and language fluency (figure B6.1.1).
Around 60 percent of college-educated
persons were computer literate compared to
just over 1 percent of persons with no schooling. Over half of the country’s English speakers were computer literate compared to less
than a quarter of those who only speak other
national languages.
Training for Sri Lanka’s vulnerable groups
is being supported through schools and telecenters. The Asian Development Bank
helped to fund the Secondary Education
Modernization project, which included a
Figure B6.1.1
component for creating over 1,000 computer learning centers (CLCs) with Internet access in secondary schools.8 The CLCs were
open to the public after school hours to provide training and Internet access. The Ministry of Education issued a regulation for
schools to keep the money earned from
training and Internet access services instead
of transferring it to the central treasury, allowing the CLCs to recover a portion of their
operating costs. About 90 percent of schools
with CLCs provide after-hour use, with
70 percent of them earning a profit. The
earnings have been used to pay for access,
electricity, maintenance, repairs, and equipment such as printers and scanners.
Computer Literacy in Sri Lanka, 2009
70
59.7
% of population
60
56.3
47.6
50
40
30
20
22.0
20.3
24.3
18.7
10
2.8
20.8
1.2
gender
age group
(years)
educational
attainment
English
Tamil
Sinhala
by language
literacy
G.C.E (A/L) or
above
no schooling
by educational
attainment
60–69
15–19
by age
group (years)
female
male
by sex
Sri Lanka
0
language
literacy
Source: Sri Lanka, Department of Census and Statistics.
Note: The GCE A/L (General Certificate of Education Advanced Level) is an exam taken by students in
Sri Lanka, typically at the end of high school.
Sources: Sri Lanka, Department of Census and Statistics 2009; Dessoff 2010.
Note: Individuals are considered computer literate if they can use a computer on their own.
Driving Demand for Broadband Networks and Services
253
Broadband can also improve digital literacy through a variety of
e-education services and applications, which also have the potential to
increase demand for broadband services, including access to digital libraries
of information, distance learning and virtual classrooms, and distance training for teachers in remote areas. For example, Colombia’s National Learning
Service (Servicio Nacional de Aprendizaje, or SENA) uses broadband services, along with other media, to train millions of people each year (nearly
8 million in 2009) using virtual online courses in professional and vocational subjects.9 In large part, this has only been possible by using broadband services along with distance and online courses. SENA ofers free
training to all Colombians in a variety of vocational and professional subjects, including arts and sports, social sciences and education, finance and
administration, manufacturing, health services, information technology,
and retail services. Companies whose employees participate in SENA’s
training courses are shown to improve their profitability and competitiveness significantly (Colombia, Fedesarrollo 2010).
One very important way to provide digital literacy is through primary
and secondary schools, particularly since enrollment is mandatory in many
countries. Although many countries have installed computers and broadband access in schools, policies vary widely regarding access by students. In
some cases, computers are only available to administrative staf, while in
others computer labs exist but may not be accessible to all students. Adequate availability of computers, tablets, and mobile phones is an essential
starting point for building digital literacy. A lack of computers, in particular,
may limit educational opportunities. The number of computers per student
varies widely around the world, a factor that can significantly enhance—or
limit—the ability of countries to ofer efective ICT training to students.
In an efort to increase computer availability for students, some countries
have been moving toward a one-to-one model, where each student receives
his or her own laptop.10 This approach has been fueled by the development
of low-cost computers for education and is particularly relevant in countries where few students have access to a computer at home.
However, broadband access is also essential in order to learn how to use
the Internet. Internet access at school is particularly relevant in developing nations where many students come from homes without such access.
The availability of Internet access in schools varies widely as well (see
UNESCO n.d.).
With regard to funding, countries can pursue a range of policies in getting their schools connected, such as including broadband access in education budgets, using universal service policies or funds to have operators
provide access, or working with development partners (table 6.1).
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Table 6.1 Examples of Funding for School Connectivity in Three Countries
Country
Funding source
Description
Chile
Telecom operator
Under the Educational Internet 2000 project
launched by the Ministry of Education, the
incumbent telecom operator agreed to provide
Internet service to primary and secondary
schools, free of charge, for 10 years.
Namibia
Development
partner
The Swedish International Development
Cooperation Agency has provided ongoing
financial assistance to Namibia’s SchoolNet
project, which provides Internet access to
schools, contributing close to N$23 million
(US$2.9 million) since mid-2001.
Philippines
Government
A 2009 presidential order directed the
Department of Education to connect all
Philippine public secondary schools to the
Internet. The annual outlay for Internet
subscription is =
P48,000 (US$1,115) per school
or some US$6.3 million in total.a
Source: Adapted from ITU, “Connect a School, Connect a Community, Module 1: Policies and Regulation to Promote School Connectivity,” http://www.connectaschool.org/itu-module/1/22/en/schools/
connectivity/regulation/Section_3.6_funding/.
a. Based on the figure of 5,677 public secondary schools during the 2009–10 school year (Philippines,
Department of Education, “Factsheet: Basic Education Statistics,” September 23, 2010,
http://www.deped.gov.ph/factsandfigures/default.asp).
Where countries choose to include digital training in their primary and
secondary school curriculum, they should also ensure that the results of
these programs are measured. As is shown in box 6.2, Australia has followed
this approach (Australia, MCEECDYA 2008a).
Community Access Centers
Outside the formal educational process, additional groups of users can be
targeted for digital literacy training. Turkey, for example, has opted to establish public Internet access centers. The Turkish Information Society Strategy
and its annexed Action Plan endeavor to establish public Internet access
centers across Turkey to provide computer and Internet access to those
who do not have access at home (CIS 2009). The strategy targets libraries,
public foundations, corporations, municipalities, organized industrial
regions, public training centers, and volunteered foundation buildings as
potential locations from which to provide access to citizens. Moreover, a
public-private partnership (PPP) with Turk Telecom established 716 public
Driving Demand for Broadband Networks and Services
255
Box 6.2: Measuring Digital Literacy in Australia
year 10 students across Australia. As shown
in figure B6.2.1, over 40 percent of year 6
students were proficient at level 3, which includes the ability to conduct simple general
searches and select the best information
source to meet a specific purpose. Nearly
half of year 10 students were functioning at
level 4, which required them to generate
more complex, well-targeted searches for
electronic information sources and assemble information to create new content in
ways that demonstrate some consideration
of audience and communicative purpose.
ICT is incorporated into the Australian educational curriculum, and digital literacy among
students is measured using a six-stage methodology in which students performing at level
1 are able to complete basic tasks using
computers and software, while students performing at level 6 are able to use advanced
software features to organize information
and to synthesize and represent data as integrated, complete information products.a
In 2008, the Australian government measured the effects of the Digital Literacy Program using a standardized test for year 6 and
Figure B6.2.1
Digital Literacy in Australia, by Proficiency Level, 2008
year 6
proficient
standard
year 10
proficient
standard
percentage of students
50
47
41
40
30
30
26
19
20
15
13
10
7
1
0
level 1
1
level 2
level 3
year 6
level 4
level 5
and above
year 10
Source: Australia, MCEECDYA 2008b.
Source: Australia, MCEECDYA 2008b; Australian Curriculum, Assessment, and Reporting Authority, “General
Capabilities: Literacy, Numeracy, and ICT Competence,” http://www.acara.edu.au/curriculum/literacy,_numeracy_
and_ict_continua.html.
a. See “Literacy, Numeracy, and ICT Continua.” Australian Curriculum, Assessment and Reporting Authority,
http://www.acara.edu.au/curriculum/literacy,_numeracy_and_ict_continua.html.
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Internet access centers in various districts (OECD 2008, 73). The government is considering expanding the number of public Internet access centers across the country. In addition, it has extended connectivity to
military conscripts through 227 public Internet access centers maintained
with 4,487 computers, 227 projectors, printers, and related equipment on
military campuses.
A comprehensive broadband strategy should also consider user-related
issues so that available funds can finance projects to increase uptake and
usage by specific groups and communities such as women, people with disabilities, and public facilities. Such projects can be part of universal broadband initiatives and funding. In many countries, community telecenters are
often part of universal service programs and funded by the government or
universal service fund. In the case of broadband, it is also important to
ensure that programs to fund telecenters include induction programs for
people who are using broadband services for the first time, including digital
literacy training and broader training in how to use basic tools or available
online services (such as e-government services).
Advanced ICT Training
Advanced ICT training refers to the acquisition of high-level skills necessary to support broadband networks and to develop broadband content
and applications. Advanced skills are taught in two general venues: (a) specialized and more informal postsecondary schools, including training provided by the private sector, and (b) universities. Specialized postsecondary
institutions include colleges, vocational schools, and courses typically
taught by multinational software or hardware companies or international
companies that specialize in ICT training. An example is the Cisco Networking Academy Program, which teaches network skills to almost 1 million students per year. Courses are taught at some 9,000 academies in 165
countries.11 Countries can create similar partnerships with other hardware,
software, content, and broadband services companies to fuel the development of training facilities and courses (Cooper 2010). India provides an
example of the benefits of training through more informal institutions.
Since the formal Indian ICT training sector through colleges and universities cannot cope with the demand for skilled ICT professionals, part of the
demand is being met by India’s training sector, which consists of over 5,000
private institutes ofering ICT courses to over half a million students
(Gupta et al. 2003).
Incorporation of ICT degrees within the formal higher education setting
is important for developing highly skilled experts, fomenting a research
and development culture, and addressing, understanding, and developing
Driving Demand for Broadband Networks and Services
257
broadband needs within the context of national goals. Governments seeking to promote broadband in their countries should develop undergraduate, master’s, and doctorate programs of study in ICTs to expand expertise
in areas such as software engineering, networking, and security. A lack of
domestic programs in these areas has often meant that students and professors go abroad and do not return (Rodrigues 2009). The higher education
sector should forge links with industry in order to obtain funding as well as
support for labs, incubators, and eventual job placement.
Privacy and Security Concerns
One obstacle to generating demand is that potential users may be afraid of
using broadband services for reasons related to privacy, security, or identity
theft. Training programs that address such concerns are an important part
of convincing those who are not online that broadband access can be safe as
well as productive. In the Republic of Korea, for example, the government
created the Korea Information Security Agency and the Korea Internet
Safety Commission to oversee Internet security and consumer protection as
part of its eforts to get people online. The United Kingdom has a website
called KidSMART that has information about safe and legal Internet use for
children. Finally, Sweden has made “confidence” a cornerstone of its ICT
policies since 2000. This includes not only confidence to use the technology,
but confidence that personal information will be protected and secure. See
chapter 3 for more information on how governments can address privacy
and security concerns.
Small and Medium Enterprises
Small and medium enterprises (SMEs) are a particular group that governments may wish to focus on for purposes of demand stimulation. Such companies may not have ICT expertise or knowledge of how broadband can
benefit their business functions. An Internet presence supported by broadband can help SMEs by providing them with the ability to reach new customers, reach a wider range of potential partners, and tap a wide range of
resources to support their business. Concentrating on SMEs may also have
important “pass-through” efects, allowing governments to reach their
employees at the same time. SMEs are also likely to find e-government programs particularly helpful in interacting more eiciently with the government, whether to apply for permits, file taxes, or supply or obtain government
services.
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To help SMEs to use broadband networks and services most efectively,
governments have adopted a variety of innovative outreach programs. The
Dutch government, for example, has launched a program to stimulate and
support the creation of applications for local SMEs (box 6.3). In Spain, the
government is providing specific training for employees of SMEs, while
Germany and Sweden have also established programs to provide training to
SME employees to increase their ICT skills and increase their competitiveness. In Denmark, the government launched a program to train SMEs, providing assistance through private consultants and helping individuals to
obtain the needed ICT skills to start e-businesses.12 Providing support to
SMEs to help them better use broadband is one of the important goals of the
U.S. National Broadband Plan (United States, FCC 2010, sec. 13.1).
Affordability
In identifying demand-side barriers to broadband adoption, policy makers
around the world have identified afordability as one of the main reasons
that people do not use broadband services where they are available. The
Pew Internet and American Life Project, as well as the U.S. Department of
Box 6.3: Stimulation of Local Applications Development for SMEs
in the Netherlands
The Netherlands created a center for the development of local applications for SMEs.
The center is half publicly funded, and projects
require the participation of private developers. The center focuses on specific sectors of
the economy (for example, hotels, restaurants, health), but also promotes cross-sector
applications. Examples of applications created in this center are SME-specific solutions
for customer relationship management,
Internet marketplaces, and applications to
manage radio frequency identification (RFID)
and integrate PDAs in business processes.
The center also works as a knowledge
bank that disseminates projects among
SMEs through seminars and workshops. In
addition, it tracks potential “breakthrough”
applications on a sector-by-sector basis to
disseminate them as best practices and ensure their expansion among SMEs throughout the country.
Sources: European Commission, “Information and Communication Technologies National Initiatives,”
http://ec.europa.eu/enterprise/sectors/ict/ebsn/national-initiatives/index_en.htm;
Netherland
BreedbandLand,
http://www.nederlandbreedbandland.nl/.
Driving Demand for Broadband Networks and Services
259
Commerce, illustrate the importance of lack of afordability to those in the
United States who do not subscribe to broadband at home (ESA and NTIA
2010). Prices for purchasing equipment and services remain a significant
barrier for many consumers, especially in developing countries. Research by
Ovum in 2010 showed that prices for broadband services are up to three
times higher in 15 emerging markets than in developed countries, despite
lower wage levels in the emerging markets.13
Various components afect the cost of broadband, including installation
and ongoing service fees, as well as the prices of devices to access and use
broadband services. In many developing countries, as well as among the
low-income populations in developed nations, both the cost to acquire a
broadband device and the cost of connection and service are often substantial relative to income levels. While potential users may have the necessary
digital literacy skills, they may be hampered from making efective use of
broadband services by the lack of afordable connections, services, and
devices.
Part of the government’s eforts, therefore, may also focus on supporting
users who want and would benefit from broadband but cannot aford to
pay prevailing commercial prices. This can apply to equipment (for example, computers), initial installation (up-front costs), connection to the network (fixed periodic charges), or use of the network to access services. One
way to do this in a market context is by subsidizing providers that ofer
service to target population groups at less than prevailing prices. Another
way is to provide subsidies directly to target users for the specific purpose
of helping them to pay for broadband. Yet another approach is to include
broadband in lump-sum income support to households. These approaches
have been used extensively in a wide range of countries to support the use
of telecommunications, electricity, transportation, and water supply, as
well as to help people to pay for rent, food, health care, and other essential
expenses.
The rationale for using subsidies to overcome obstacles to broadband
afordability is twofold: (a) greater deployment and use of broadband services are important drivers of economic growth, and (b) the value of network services in general, and broadband services in particular, increases
as more people participate. Possible measures to consider include the
following:
• Subsidizing the purchase of devices or computers, by means of government financing or bulk procurements, vouchers, or distribution of devices
• Introducing tax credits for the purchase of devices or computers
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• Establishing locations for shared or community access to computers and
other devices to facilitate the use of broadband services
• Introducing measures that reduce or eliminate taxes on broadband
service so as to reduce the final price paid by consumers.
Colombia’s Plan Vive Digital, for example, addresses cost issues by making connection devices more available to the general public by eliminating
customs tarifs, making access to credit for the acquisition of terminals more
flexible, eliminating the value added tax for Internet service, and redirecting landline subsidies toward Internet subsidies.14
Device Ownership
The realization that demand for communication services, including broadband, does not generally increase if citizens do not have access to a PC or
other broadband-enabled device has spurred policy makers around the
world to introduce measures to facilitate ownership of devices or computers (box 6.4). The range of broadband devices includes more traditional
means of access, such as PCs and laptops, as well as mobile devices, including cellular phones, smartphones, and tablets.
For many citizens in developing countries, the cost of even a discounted
computer is prohibitively expensive. For example, figure 6.4 compares
income levels in Sub-Saharan African countries with the cost of broadband
devices. The data show that a US$400 netbook is more than the annual per
capita gross domestic product (GDP) in nine Sub-Saharan African countries
(Kim, Kelly, and Raja 2010). In these situations, direct distribution of lowcost devices has been used to overcome the price barrier.
Personal Computers, Laptops, and Netbooks
Programs to subsidize the purchase of laptops or computers have taken
many forms, including tax breaks, government subsidies, and a reduction in
price of the device itself. Some countries have provided fiscal incentives for
individuals and businesses to purchase PCs, for example, by allowing pretax
income to be used for these purchases. In Sweden, for example, the government established a tax rebate whereby employers could purchase computers for their employees to use at home. The program, which started in 1998,
allows the purchase price of a computer to be deducted from salaries as
monthly repayments over three years’ time. Home computer penetration
reached 90 percent by 2006. Similar programs have been used in other
European countries. Governments in countries such as Korea, China, and
Portugal have provided financing for the purchase of computers or are
Driving Demand for Broadband Networks and Services
261
Box 6.4: Device Price Trends
New computers. Prices have dropped more
than 90 percent over the past decade for
purchasing a computer capable of multimedia functions and Internet connectivity, as
shown in figure B6.4.1.
Netbooks. The appearance of netbook
computers in 2007, which are smaller, inexpensive laptop computers, has opened new
possibilities for additional affordable devices
for broadband connectivity. Prices for netbooks have fallen substantially since their
introduction to the market. For example,
between 2008 and 2009, the price of certain netbooks dropped dramatically in the
Figure B6.4.1
United States, from nearly US$500 to just
over US$200 in 12 months.
Smartphones. Entry-level smartphone
prices have reached the US$150 range and
are expected to drop further to the US$80
level by 2015.
Refurbished computers. The purchase of
refurbished computers, made possible by
the donation of obsolete or malfunctioning
computers, allows consumers to buy two or
three computers for the price of one new
model; such computers tend to come with
longer warranties than their brand-new counterparts.
Prices of Computer Hardware in the United States, 1992–2009
log index: 1992 = 100
100
10
1
19
9
2
19
93
19
94
19
95
19
96
19
97
19
98
19
99
20
00
20
01
20
02
20
03
20
04
20
05
20
06
20
07
20
08
20
09
0
personal computers and workstations (excluding portable computers)
portable computers, laptops, PDAs, and other single-user computers
Source: U.S. Bureau of Labor Statistics, http://www.bls.gov/ppi/#tables, as cited in Kim, Kelly, and Raja
2010, 26.
Sources: “DealNews, DealWatch: Price Trends on 10” and 9” Netbooks,” DealNews, July 23, 2009, http://dealnews.com/features/Deal-Watch-Price-trends-on-10-and-9-Netbooks/308433.html; Juniper Research, “Number
of Entry-Level Smartphones to Reach over 185 Million by 2015, Driven by Operator Own-Brand Initiatives and
Falling Prices,” January 27, 2011, http://juniperresearch.com/viewpressrelease.php?pr=224; Dessoff 2010.
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directly leasing computers to low-income families, students, or other identified groups (box 6.5).15
Reducing the cost of devices, particularly laptops, has also been successful in increasing device and broadband usage. One notable program to promote the spread of low-cost laptops in schools is the One Laptop per Child
(OLPC) Initiative. The cost of the devices was predicted to drop to around
US$100 under this program. Although the OLPC Initiative has experienced
some significant setbacks, it has led to increased availability of lower-cost
devices around the world. Uruguay has had some of the greatest success
with the OLPC Initiative, with all of its primary students receiving their
own laptop by 2009.16 Some of the corporate participants that supported the
initiative have since gone to market with their own low-cost computers,
thus providing countries with additional options (Kramer, Dedrick, and
Sharma 2009). The main commonalities of such devices, regardless of the
brand or specific functionality, are a relatively low price (less than US$300
for the device), a flip or clamshell design, and small size (for example, screen
size less than 10 inches).17
Mobile Devices, Smartphones, and Tablets
Mobile phones have taken the world by storm, with average mobile penetration rates in 2010 of 68 percent in developing countries and 116 percent
in developed countries. Regionally, Africa has 41 percent penetration,
Driving Demand for Broadband Networks and Services
263
Box 6.5: Promoting Digital Literacy through Primary and Secondary
Schools
Korea. The Korean Agency for Digital Opportunity and Promotion introduced a wide
range of programs to promote digital literacy
and access to computers, including subsidies for the purchase of PCs by low-income
citizens. Established in 1999, this program
provides low-cost PCs, partly through a purchase installment plan using the postal savings system and partly through a leasing
program whereby government purchases
50,000 PCs and provides them to low-income families on a four-year lease, with free
broadband for five years. Low-income students with good grades also receive free
computers. Persons with disabilities and
those receiving public assistance are eligible
to receive free used computers.
China. China subsidizes computers for
persons living in rural areas: families with a
registered permanent rural residence can
obtain a 13 percent subsidy if they purchase
an eligible PC. Vendors compete for approval
to sell computers under this program, and
their maximum prices are limited under the
terms of the approval. While there is a direct
government outlay to pay for the 13 percent
subsidy, the government’s costs are at least
somewhat offset by the taxes collected on
all economic activity associated with the
manufacturing, marketing, sale, and distribution of these computers, much of which also
takes place within China.
Portugal. Portugal has launched two successful low-cost computer projects as part of
its government program to promote broadband—the E-Escola (E-School) Program and
the E-Escolinha Program. The E-School Program, initiated in June 2007, distributes laptops with broadband Internet access to
teachers and secondary school students. By
September 2010, the program had distributed
over 450,000 laptops throughout the country.
The laptops are sold by telecommunications
providers at €150 (US$220) with a €5 discount over the basic monthly fee for 3, 5, and
7.2 megabits per second (Mbit/s) connections.
Lower-income students get the laptops for
free and broadband connectivity at 3 Mbit/s
for between €5 and €15 per month. E-school
is subsidized by the fees mobile operators
paid for third-generation (3G) licenses. In July
2008, the government in partnership with Intel
launched the E-Escolinha Program to produce
a Portuguese version of the Intel Classmate
(the “Magalhães”). The project calls for distributing these computers to 500,000 primary
school students; by September 2010 over
410,000 computers had been distributed.
Sources: Atkinson, Correa, and Hedlund 2008; World Bank 2010; Escalões da Acção Social Escolar, http://eescola
.pt/e-escola/
Arab states, 79 percent, Asia and Pacific, 68 percent, Commonwealth of
Independent States, 132 percent, Europe, 120 percent, and the Americas,
94 percent.18 In recent years, mobile service providers have begun to ofer
broadband services in addition to the original voice telephony and narrowband data services.
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A business model that has contributed to the explosive growth of mobile
telephony throughout much of the world is the “subsidization” of the mobile
phone by revenues from subscriptions. Operators generally ofer cheaper
handsets subject to the consumer signing up for a one- or two-year service
contract. Often, high early-termination fees are linked to such contracts to
recover the remaining cost of the subsidy, if required. Besides device afordability, ease of use through prepaid services has also been one of the key
benefits for low-income customers, ofering them the ability to control their
expenditures, the ability to switch to just receiving calls in times of economic diiculty, simple sign-up, and other features that have given mobile
telephony an edge in the marketplace over traditional wireline telephone
service (Oestmann 2003, 3).
It is reasonable to expect to see similar business models and programs
expanded to include broadband devices, such as providing modems, smartphones, or tablet devices at reduced prices, along with contracts for broadband services. The first versions of such ofers have consisted of a subsidy
for the purchase of a laptop computer and modem, or a modem alone, bundled with a customer contract for Internet access.19 In Europe and the
United States, for example, network operators already subsidize other kinds
of equipment in addition to phones. 20 In exchange for a two-year data contract, consumers can obtain cellular modems and sometimes even netbook
computers with no up-front charge (Byrne 2009). Primarily, these ofers are
contingent on signing a contract for service. In Europe, studies show that
the practice of bundling the cost of a laptop with an access plan is leading to
robust sales in mobile access subscriptions. Thus, for example, global
demand for mobile broadband pushed European operator Orange’s mobile
broadband customer base, including smartphone customers, to 23.2 million
at the end of September 2008, which represented an 81 percent increase
from the previous year. For United States–based AT&T Mobility, which
started subsidizing laptops in 2008, data revenue jumped 51.2 percent in the
fourth quarter of 2008 compared with the same quarter in 2007. It recorded
US$3.1 billion from data revenue alone.21
Eventually, less expensive devices are likely to be ofered, along with
simplified or even no contractual commitments to purchase the broadband service, but simply with the expectation that such service will be
purchased on a prepaid basis in suicient quantities by enough customers
to justify the subsidy. Already in some countries, mobile users own a USB
modem enabling broadband service, but not necessarily a laptop or computer; they access the Internet at a shared computer. Throughout Africa
(for example, in Tanzania, South Africa, Swaziland, Cameroon, and Kenya),
operators sell subsidized modems with service contracts for 3G (or
Driving Demand for Broadband Networks and Services
265
Enhanced Data Rates for GSM Evolution [EDGE]) service, following the
mobile phone subsidization business model. Since most users are prepaid,
however, most of the mobile broadband uptake is prepaid as well and does
not involve service contracts. In South Africa, bundled broadband products have started to emerge over the last few years, which typically include
a PC, laptop, or netbook with a standard data bundle based on a 24- or
36-month contract. Incumbent operator Telkom ofers its “Do Broadband”
Acer netbook in a bundle, while Vodacom and MTN also have notebook
and netbook oferings. iBurst is also selling 1 gigabyte (GB) and 2 GB notebook bundles (box 6.6).22
Recently, South African operators have been aggressively pursuing customers with attractive pricing of bundled mobile broadband packages.
Vodacom, for example, launched a “2GB + 2GB” promotion in April 2011 for
R 149 (US$22) per month, ofering consumers on a 12-month contract a
2 GB per month data allowance, a 7.2Mbit/s High-Speed Packet Access
(HSPA) modem, and an additional 2 GB of “night owl bandwidth” that can
Box 6.6: Trends in Low-Cost Devices
Classmate. Developed by Intel as a “mobile
personal learning device for primary students
in emerging markets,” the Classmate was
introduced in 2006. The second-generation
Classmate is built around an Intel processor
and has a “kid-friendly” design. Features
include hardware-based theft protection,
Wireless Fidelity (Wi-Fi), and a battery life of
between 3.5 to 5 hours. The Classmate runs
Windows XP or Linux and is available in clamshell or convertible designs. Intel has licensed
the technology to various manufacturers.
Asustek. A computer manufacturer from
Taiwan, China, Asustek introduced the Eee
PC (“Easy, Exciting, and Economic”) notebook in October 2007. Although not strictly
designed for the educational environment,
the Eee PC is a portable laptop that uses
flash drive storage. Entry-level models are
price competitive.
Mobilis. Manufactured by the Indian company Encore, Mobilis has touch-screen capabilities, a six-hour battery life, a carrying case,
and a full-size, flexible, roll-up keyboard.
ITP-C. This is a touch-screen tablet computer with Wi-Fi using the Windows CE operating system. An external keyboard can be
connected via a Universal Service Bus (USB)
port. It is manufactured by ITP Software,
based in Israel. It is being used in school
projects in Argentina and Chile.
Sources: Encore Software, “Products,” http://www.ncoretech.com/products/ia/mobilis/index.html; ITP Software,
“ITP-C,” http://www.itp-c.info; ITU, “Connect a School, Connect a Community Toolkit, Module 2: Disseminating
Low-Cost Computing Devices in Schools,” http://www.itu.int/ITU-D/sis/Connect_a_school/Modules/Mod2.pdf.
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be used between midnight and 5 a.m. Subscribers also get free technical
setup support plus a mailbox with 5 GB of storage (Muller 2011). South
Africa is one of the few countries worldwide that still maintains monthly
data caps on fixed-line broadband, although such caps are more common
for mobile broadband.
The mobile phone subsidization business model is not without its detractors, and the practice is illegal in some countries. Concerns include whether
the total cost of ownership is higher over time with subsidies and contracts
versus scenarios involving unsubsidized phones and lower service prices,
device locks that are used to prevent phones from being used with another
operator’s service, the limited variety of device models that operators are
willing to subsidize, and high fees that consumers may pay if they want to
terminate their contract early. Policy makers considering some type of subsidy program will need to take such concerns into account as they analyze
various subsidy approaches.
Service Costs
Programs to provide afordable broadband devices to users are important,
but only solve part of the problem. The longer-term issue for adoption of
broadband services is the ongoing cost of receiving service. Some users may
not have the means to pay for broadband access on an ongoing basis, particularly in countries where broadband service prices are still high. More
information about support programs that could help users to get and keep
their broadband service can be found in chapter 4, which addresses universal service funds and obligations.
In order to address the issue of service cost, in 2001 the Kenniswijk project in the Netherlands proposed a two-part subsidy program for connecting
users. Notably, a year after the subsidies ended, 80 percent of subscribers
were still using the service.
• Initial connection. A subsidy would be paid directly to the consumer and
the administration would be undertaken by a government agency. This
part of the subsidy would be used to encourage people to get Internet
connections.
• Ongoing support. Ongoing support would be administered by the companies that win the contract to build the broadband infrastructure. They
would receive money from the government and would then distribute
the full amount to individual consumers in the region in the form of a
lower connection tarif per household. It was thought that this would
encourage people to adopt and keep broadband access.23
Driving Demand for Broadband Networks and Services
267
Shared or Community Access
In addition to using community access centers as a way to promote awareness of broadband, shared or community access can be a means of facilitating broadband afordability. Establishing locations where users are able to
share broadband access is an important tool to enable broadband adoption
and drive demand for otherwise willing and skilled persons who lack the
financial means to purchase devices or pay long-term (contract) access
charges. Public access facilities can be (a) government access facilities operated by public libraries, post oices, municipalities, or schools or (b) forprofit Internet cafés or local area network (LAN) gaming arcades operated
privately. Both models are seen in abundant numbers throughout the world,
including in developing countries. Public funding for access facilities may
be particularly justified in localities where privately operated telecenters or
Internet cafés are not yet available.
These facilities provide additional benefits, as they can also be places
where training in digital skills occurs, such as those discussed earlier in this
chapter. Figure 6.5 illustrates how important shared access facilities are in
providing Internet access. It shows the place of access for Internet use on
Figure 6.5 Internet Use by Persons Ages 15–74 in 12 Latin American
Countries, by Place of Access, 2007–09
Country and year
Household
Public access
House of another
person
Brazil, 2008
60
35
19
Chile, 2009
64
22
—
Costa Rica, 2008
38
40
6
Ecuador, 2009
34
62
7
El Salvador, 2008
31
45
2
Honduras, 2007
17
77
—
Mexico, 2009
47
35
3
Panama, 2007
31
41
5
Paraguay, 2008
39
38
6
Peru, 2009
28
64
—
Dominican Republic, 2007
22
61
27
Uruguay, 2009
65
25
17
Source: Observatory for the Information Society in Latin America and the Caribbean, available at
http://www.cepal.org/tic/flash/, as cited in ECLAC 2010, 32.
Note: — = Not available.
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the basis of household surveys conducted in 12 countries in Latin America.
In seven of the 12 countries, more persons access the Internet at public
access facilities than do so at their own households.24
In India, the government is establishing 96,000 common service centers
(CSCs) with broadband access that is configured to enable video, voice, and
data in the areas of e-governance, education, telemedicine, entertainment,
and other private uses.25 E-government services from the national, state, and
local governments are all available at the CSCs. One Indian state, Kerala, has
implemented FRIENDS (Fast Reliable Instant Eicient Network for Disbursement of Services) as a single-window facility with at least one center
in each district of the state. Currently, each center has 800 to 1,000 visitors
daily. Citizens can make payments for various government-related services,
obtain e-literacy training, and access a help desk to receive answers to
questions or register complaints.26 In the initial implementation of the program, 95.6 percent of participants said they lost their fear of computers
because of the program, 30.5 percent felt they gained more respect in the
community because of their computer knowledge, and 9.2 percent signed
up a child for a computer-literacy class (Pal 2007).
Attractiveness
In order to generate demand for broadband, consumers must not only be
aware of and able to aford broadband, but they must also see the relevance
and attractiveness of it. This is facilitated by ensuring that the market provides suicient choice and diversity of services, applications, and content to
appeal to all consumers. Actions to boost broadband demand are generally
aimed at both consumers and businesses to encourage them to produce content, services, and applications (Battisti n.d.). This section makes a distinction between services and applications, but this distinction is becoming
blurred as technologies develop and services and applications begin to overlap and merge, as noted in chapter 1. While it may be arguable whether
something is more appropriately classified as an “application” or a “service,”
for this chapter the particular category is less important than the fact that
attractive services and applications both significantly increase demand.
Services to Drive Broadband Demand
Services refer to the basic connectivity function of providing access to the
Internet as well as value added features that broadband operators include
with the broadband subscription and that meet specific quality guidelines.
Driving Demand for Broadband Networks and Services
269
Within the broadband ecosystem, the availability of services is an important
factor that influences and possibly drives demand. This level of demand, of
course, will be afected by the attractiveness and afordability of the service
oferings.
Internet
A broadband subscription provides a high-speed connection to the Internet.
The way the subscription is provided can afect attractiveness and will
depend on the technology and regulatory or business considerations. This
includes whether the broadband subscription can be purchased on its own
or requires a subscription to an underlying transport technology. For example, in the case of a digital subscriber line (DSL) broadband connection, a
telephone line is required. Subscribers have typically been obligated to pay
a monthly rental for the telephone line in addition to the broadband subscription even if they do not use the telephone line for anything else but
broadband. This adds to costs and may require an extra bill, discouraging
users from taking up the service. Some operators include the telephone line
with the broadband subscription, so there is no separate bill. In a few countries, the cost of the physical broadband connection is billed separately from
Internet access. In other words, the user needs to pay one bill for a broadband connection and another bill for Internet access.
Several factors make a broadband subscription more or less attractive to
potential users. One important factor is speed. Although some consider all
“always-on” subscriptions of at least 256 kilobits per second (kbit/s) to be
broadband, in practice, speeds must be above a certain threshold to use
desirable applications such as video viewing or gaming. A variety of ofers
with diferent speeds provides more choice to the user. Other factors to consider are restrictions that the broadband providers may impose on capacity
(for example, data or usage caps). Some operators distinguish between
domestic and international use by having no cap or a higher cap for traic to
national sites and a low cap for access to sites hosted abroad. One issue with
caps is that users often do not understand the relation between volume and
their usage needs. Users can easily underestimate how much data they will
use, particularly if they access a lot of video services or use peer-to-peer
download services (some of which may run in the background). This makes
it diicult for them to know which package to select when packages vary by
data caps. Some operators cap usage through time rather than data volume
(for example, monthly subscription of 20 hours).
Increasingly, governments are responding to data caps and “throttling”
practices by requiring service providers to disclose their network management practices clearly, in order to protect consumers and improve the
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overall broadband experience (see the discussion of network neutrality in
chapter 3). Regulators have also instituted other measures, such as monitoring quality of service and alerting users to sites where they can test
their broadband connection for speed or throttling (see chapter 5 for
more discussion of quality of service issues).
Voice
Voice telephony continues to be a popular service, although it represents
a declining share of revenue for public telecommunication operators. A
growing number of broadband operators ofer voice over broadband
(VoB) service, which is a managed service (unlike voice over Internet
Protocol, VoIP, which is generally considered as an application running
“over the top” of the public Internet and not directly managed by the network operator). VoB provides the same quality as a traditional fixed telephone and often provides other value added features such as call waiting,
voice mail, and speed dialing as well as the ability for users to monitor
these features online via the provider’s website. The price structure for
VoB is often made attractive by including unlimited national calls for a
flat rate or even including free national calls with the broadband service
subscription. Since the service works through the broadband modem,
users do not need to be connected to the Internet and do not even need a
separate Internet subscription.
Several regulatory issues are related to VoB. The most basic is whether or
not a country’s laws and regulations allow it. Where VoB is legal, other regulatory considerations are often driven by the requirements placed on legacy
wireline telephone networks. One is the requirement for users to be able to
make emergency calls. Other regulatory requirements relating to consumers can include access for persons with disabilities and number portability.27
The latter can be influential in encouraging users to switch from traditional
telephone services to VoB.
Video
IP networks allow video services to be provided over a variety of networks.
This has allowed broadband operators to provide Internet Protocol television (IPTV) or video on demand (VoD) services. The ability to provide
IPTV, VoD, or both can make operators’ broadband services more attractive, especially when other features are included, such as access to special
programming not available elsewhere.
Television as a managed ofering with a broadband subscription takes
many forms. Some operators require IPTV to be bundled along with the
broadband subscription, while others ofer IPTV on a stand-alone basis.
Driving Demand for Broadband Networks and Services
271
Others have developed more extensive video service oferings, including BT
(formerly British Telecom) in the United Kingdom, which ofers its Vision
service, which seamlessly integrates free-to-air digital television programs
with a digital recorder and VoD feature.28 Some operators provide additional features such as radio programming and the ability to watch programming on computers, tablets, and mobile phones in addition to the
traditional television set.
The ability to bundle television with broadband Internet service is often
subject to technical and regulatory considerations. In the case of IPTV,
users need to have a minimum bandwidth to use the service. Some countries
require companies that provide television service to obtain permission or a
specific type of license. Sometimes permission is required from local authorities. Conditions vary, but in general, television service is subject to a higher
level of regulatory oversight than broadband service. Regulatory limitations
have sometimes meant that operators can only provide delayed service
rather than live programming, making their ofer less attractive.
Bundling
IP-based technology and digitalization of media allow a single network to
provide a variety of voice, data, and video services. The ability to ofer multiple services has led operators to bundle services together. This often
includes a price reduction in the total cost of the service (that is, the bundled
prices is less than the cost of buying the same services individually) and the
benefit of receiving just one bill. “Double play” refers to a combination of
broadband Internet and some other service, “triple play” refers to the ability
to provide three services, whereas “quadruple play” also includes mobile
service (see table 6.2 for bundling trends in Switzerland).
Bundling ofers can be attractive to consumers because of their lower
costs and a single invoice. However, some consumers may only want one
service from a provider and therefore need to have an “a la carte” option
and not be obligated to purchase additional services. In any case, a service
provider that is only allowed to provide Internet access is at a disadvantage versus converged operators since consumers are increasingly interested in receiving multiple types of communication services ofered
through bundles.
Government
Government services and applications fall into the following broad
categories: (a) making government information available, (b) conducting
transactions with the government, and (c) participating in the political process. Governments can enhance broadband demand by acting as model
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Table 6.2 Subscriptions to Bundled Services in Switzerland, 2008 and 2009
Bundle
Percentage
change, 2008–09
2008
2009
Wireline telephony + broadband
Internet
377,477
484,326
28
Broadband Internet + television
59,306
74,862
26
Broadband Internet + mobile telephony
42,126
66,482
58
Wireline telephony + broadband
Internet + television
85,417
136,082
59
Wireline telephony + mobile telephony
+ broadband Internet
2,767
2,309
−17
Mobile telephony + broadband Internet
+ television
236
328
39
Wireline telephony + mobile telephony
+ broadband Internet + television
3,043
6,130
101
Source: Switzerland, OFCOM 2011.
users or anchor tenants and by promoting e-government services and
broadband-related standards, putting content online, and supporting the
development and distribution of digital content by other players. In addition, e-government services and broadband applications can help to organize the public sector more eiciently (in areas such as public safety, for
example).
All governments collect and produce information. Applications at varying levels of sophistication can be developed to make this information
available, thereby increasing demand for broadband services, as those
applications are used by consumers. A 2008 study by the Organisation for
Economic Co-operation and Development (OECD) contends that policy
initiatives to foster more sophisticated government online services are
becoming popular (OECD 2008). These initiatives include expanding
secure government networks, putting administrative processes and documents online, supplying firms and citizens with more cost-efective ways to
deal with the government (including once-only submission of data), and
assigning firms and citizens a single number or identifier to conduct their
relations with government. Government information that has been made
available online in various countries includes legislation, regulations, litigation documents, reports, proposals, weather data, traic reports, economic
statistics, census reports, hearing schedules, applications for licenses and
registrations, and even feeds from surveillance cameras. With always-on,
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high-bandwidth networks, online interactions between the government
and businesses are also becoming more sophisticated, with some OECD
countries ofering one-stop platforms for government procurement, bidding information, and so forth.
E-services that improve openness and access to democratic institutions are also becoming feasible as a result of increases in broadband
transmission capacity. Examples include Internet broadcasts of parliamentary debates and agency meetings and the use of multimedia content
within the educational or cultural sector. Such applications allow citizens greater participation in the process of governance. Applications for
polling, voting, campaigning, and interacting with government oicials
can increase the demand for broadband services. In the United States, for
example, two models of e-government citizen participation are emerging. One is a deliberative model where online dialogue helps to inform
policy making by encouraging citizens to scrutinize, discuss, and weigh
competing values and policy options. The other is a consultative model
that uses the speed and immediacy of broadband networks to enable citizens to communicate their opinions to government in order to improve
policy and administration.29 Actions to encourage citizen participation
through e-government include the following:
• Connecting citizens to interactive government websites that encourage
citizen feedback and participation in policy making, design, and innovation
• Encouraging library users to participate in online dialogue on topics such
as health care and the economy
• Participating in government experiments with a variety of tools, including “wiki government,” where citizens participate in peer review
• Educating citizens about their civic role and providing opportunities for
them to interact with government agencies and oicials using tools that
fit individual or specific community needs
• Partnering with government oicials and citizens to facilitate well-informed and productive discussions online
• Providing citizens the ability to create “my e-government” so they can
personalize their interaction with government agencies and oicials
• Creating “online town halls” to promote e-democracy for agenda setting
and discussion of public issues as well as to promote accountability in the
provision of public services.
As services and applications are developed to facilitate transactions with
the government, those processes can be simplified and made more eicient,
both for the government and for its citizens. A 2008 OECD study reported
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that since 2005 many countries have moved toward citizen-centric government (that is, measuring user satisfaction and user friendliness) with the
mainstreaming of e-services via integrated multichannel service delivery
strategies (OECD 2008).
A major goal of developing such services is to make government information more readily available as well as to increase transparency of government activities. The Netherlands is a leader in creating digital content and
ofering it via online government services (Atkinson, Correa, and Hedlund
2008, 39). In 2006, in an efort to support the development of broadband,
the Dutch government decided to give all citizens a personalized webpage—the personal Internet page—where they could access their government documents and social security information as well as apply for grants
and licenses. In the United States, the E-Government Act of 2002 was
designed to “promote use of the Internet and other information technologies to provide increased opportunities for citizen participation in Government (Public Law 107-347, section 2b (2) Dec. 17, 2002).” These opportunities
range from online tax-filing options to Social Security Administration application forms and, more recently, to electronic passport applications. In
addition, the U.S. government embraced e-government as an educational
tool, particularly in providing online education programs for new immigrants seeking citizenship and for school support programs within the
Department of Education. In Colombia, the 2010 Plan Vive Digital aspires
to create a digital ecosystem by 2014 that would achieve several demandrelated goals (box 6.7).30
As described in chapter 3, governments may need to reform certain legal
practices in order to conduct e-government transactions electronically. For
example, laws may need to be modernized to define and recognize electronic signatures, electronic filings, and certification of electronic documents. These reforms will make it possible for a broad range of transactions
to be conducted over broadband networks. Such reforms must also be
accompanied by awareness campaigns to help users to gain knowledge of
e-government services and applications. OECD governments and industry,
for example, have developed campaigns to educate consumers about risks to
Internet security, instructed consumers on how to protect themselves
against fraudulent practices, and put into place regulatory measures to promote a culture of security.
Health
E-health involves a variety of services and tools provided by both the public
and private sectors, including electronic health records and telemedicine.
Broadband health care services and applications have the potential to lower
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Box 6.7: Colombia’s 2010 Plan Vive Digital
In Colombia, the 2010 Plan Vive Digital is set
to establish a digital ecosystem by 2014 that
encompasses supply (infrastructure) and demand (users, services, and applications).
With respect to the latter, the plan seeks to
make broadband more attractive to users
and businesses in several ways:
• Have all national government entities and
half of local government entities provide
services online
• Support the development of applications
for micro, small, and medium enterprises
and enable half to use the Internet
• Assist the consolidation of the information technology and business process
outsourcing industry
• Triple revenues for the creative digital industries
• Create mechanisms for public and private
financial leverage for Colombian companies that develop applications and content
• Strengthen national and regional public
broadcasting services incorporating the
use of ICT.
Source: Colombia, Ministerio de Tecnologías de la Información y las Comunicaciones, “Vive Digital Colombia,”
http://vivedigital.gov.co/.
costs and lead to better health outcomes. A 2010 ITU discussion paper
argues that citizens in rural areas, as well as those with limited mobility,
will be able to use e-health to access specialized care that previously was
not available to them (Hernandez, Leza, and Ballot-Lena 2010, 4). For
example, broadband capabilities are essential to medical evaluation and
other medical applications that use imaging extensively. High-definition
video consultations allow rural patients and immobile patients (for example, incarcerated individuals or nursing home residents) to be seen by specialists in a timely manner when urgent diagnosis is needed and the
specialists are not able to travel to where the patients are located. Other
e-health services and applications include digital patient records; remote
monitoring, where caregivers monitor key vital signs from a remote location, such as for diabetes or congestive heart failure patients; and access to
medical information materials and advice.31
With the explosion of mobile devices in low-income nations and the
relative lack of wireline broadband penetration, mobile health (m-health)
is establishing a new frontier in health care in those countries.32 Although
basic voice and data connections are useful to improving health and medical care, broadband connectivity is necessary to realize the full potential
of e-health and m-health services, particularly in rural communities.
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In addition, a greater range of services becomes possible with more uniform, faster, and more afordable broadband access; greater access and
coverage expand the “subscriber” base, building volume, creating incentives for players, and helping to push sustainable m-health applications
beyond simple one-way data services (Vital Wave Consulting 2009, 20). As
a result, improvements in telemedicine and other e-health initiatives will
rely on increasing bandwidth capacity, more storage and processing capabilities, and higher levels of security to protect patient information. Cape
Verde, for example, has been exploiting growing broadband connectivity
by connecting two of its hospitals to the Pediatric Hospital of Coimbra,
Portugal (Favaro, Melhem, and Winter 2008). The telemedicine system
supports remote consultations through video conferencing. One goal is to
reduce the number of Cape Verdeans who have to travel to Portugal for
medical service. In addition to the Cape Verdean hospitals, two Angolan
hospitals also are connected to the network, and over 10,000 remote consultations have been carried out (CVTelecom 2010, 9). In India, Ericsson
and Apollo Telemedicine Networking Foundation signed a Memorandum
of Understanding to “implement telemedicine applications over broadband-enabled mobile networks” in the summer of 2008 (Vital Wave Consulting 2009). The initiative is anticipated to decrease costs and improve
health care outcomes, particularly for rural populations.33
Financial Services
Online banking has evolved considerably, with the Internet becoming an
integral part of the delivery of banking services around the world. It is generally recognized that e-banking services can provide speedier, faster, and
more reliable services to customers and thus also improve relationships
with them. Although many types of Internet connections have online banking capabilities (for example, some m-banking transactions are conducted
with narrowband short message service, SMS, messages), high-speed
connectivity is essential for efective e-banking. A 2007 study, for example,
found that, in the United States, banking online was performed by 66 percent of households with a home broadband connection versus 39 percent of
households with a narrowband connection (DuBravac 2007, 9). Delivering
financial services to low-income users through e-banking can also ofer the
potential to decrease operational costs dramatically, improve the quality of
financial information, allow for “video chats” with bank representatives,
and make banking for low-income users more profitable and less risky for
mainstream financial institutions (Waterfield 2004). For these markets in
particular, mobile money services have proved to be of particular importance. In countries such as Afghanistan, Bangladesh, Kenya, Indonesia,
Driving Demand for Broadband Networks and Services
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Pakistan, the Philippines, and South Africa, various forms of m-banking services are expanding the financial services frontier. These services allow
users to make payments and remittances, access existing bank accounts,
conduct financial transactions, engage in commerce, and transfer balances.
Applications to Drive Broadband Demand
Among demand facilitation factors, applications (that is, function-specific
software using a broadband connection to deliver content to users) have a
tremendous impact on adoption. If there are no compelling applications to
use on the platform, users will find no value in broadband and will not use
it. Applications add value to broadband, as they provide tools and services
that are tangible and valuable for both consumers and businesses. This
increases the value proposition of broadband and the chances of attracting
potential users to try the service. Evidence suggests that once consumers try
the service, they are more willing to use it more frequently and subscribe to
it. Additionally, the rise of social networking sites and the rapid increase in
the amount of user-generated content being produced indicate that such
applications can be strong demand drivers. Whether a user is uploading videos for friends and family or developing applications for use on a mobile
device (available in various “app stores”), it is clear that individual user
innovation can provide a strong incentive for people to subscribe to broadband services—whether for personal or professional reasons.
The development of local content is important, as people are more likely
to be attracted to content that is developed in their local language and
designed for their local culture. With greater local content, local SMEs and
consumers can better understand the benefits of broadband. For example,
locally developed video games played a key role in broadband difusion in
Korea, which suggests that applications that address local needs and culture
are critical for broadband difusion. Reflecting this recognition, in 2010 the
Kenya ICT Board began a grant program with K Sh 320 million (US$3.7 million) to promote the development of relevant, local digital content and software by targeting developers in the film, education, entertainment, and
advertising industries (Obura 2010).
The increased availability of broadband-enabled applications in government services, health care, education, and finance is also expected to boost
the overall demand for broadband services. Similar to how a large merchant
serves as an “anchor tenant” in a shopping center by drawing in customers
who also purchase from smaller shops in the same shopping center, developing and implementing specific broadband “anchor” applications will
help to attract new broadband users, who will make use of other broadband
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services as a result. As applications are designed and implemented, the issue
of accessibility should also be kept in mind, so that those with disabilities
are not excluded. The United Nation’s Global Initiative for Inclusive Information and Communication Technologies ofers support in this area and
helps to highlight how e-government and other applications can be kept
fully inclusive.34
Social Media and Web 2.0
Social media (for example, YouTube and Facebook) are applications that
facilitate social interaction, using web and mobile technology. YouTube, for
example, is one of the most widely used social media applications and
requires broadband capabilities to be efective. Users generate video content, upload it, and share it with others. In 2010, some 35 hours of footage
were uploaded to YouTube every minute, with over 13 million hours
uploaded in total over the year (Scott 2011). Web 2.0 is closely related to
social media and is a term generally associated with applications that feature user-generated content and facilitate collaboration among users
(O’Reilly 2005). Web 2.0 applications—including web-based communities,
hosted services, web applications, social networking sites, photo- and videosharing sites, wikis, blogs, mashups, and folksonomies—are interoperable,
user centered, and collaborative. Unlike the “traditional web,” they allow
users to generate, distribute, and share content in real time and typically
require broadband connectivity. The availability of social media and Web
2.0 applications is stimulating demand and is an important factor to bear in
mind in developing demand creation or facilitation strategies.
Social Networking
Social networking applications allow people who share interests to initiate
and maintain connections, communicate with one another via various
media, including text, voice, and video, interact through social games, and
share user-generated and traditional media content. The highly personalized, easy, and flexible nature of social networking applications makes
them some of the most-used online tools and one of the main drivers of
broadband demand. Since these websites tend to ofer at least limited
functionality with dial-up or other low-bandwidth Internet connections,
they help to drive broadband demand among users seeking to take full
advantage of the website applications. Additionally, Web 2.0 applications
have strong network efects, in which websites become more useful as
more people participate (for example, Wikipedia entries or reviews of
products on Amazon). Nonadopters who may not have found broadband to
be relevant in the past may seek out broadband services in order to interact
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with family and friends as well as to discover and create other engaging
user-generated content.
Mobility is a key component of social networking. As of September 2011,
of the over 750 million active Facebook users, more than 250 million access
Facebook through their mobile devices and use Facebook twice as much as
users with nonmobile devices.35 Indeed, evidence already exists that social
networking applications are driving mobile broadband use in many countries. In the United Kingdom, mobile operator Hutchison 3G released traic
statistics showing the amount of data customers use when browsing social
networking sites (Mansfield 2010). The operator found that social networking accounts for most mobile broadband usage in the country, with Facebook the most popular application. With the number of mobile broadband
users expected to hit the 1 billion mark in 2011, the value of social networking to drive demand for ever-increasing amounts of data is substantial
(Gobry 2011).
Particularly in developing countries, where mobile broadband is reaching more people than wireline broadband, social networking applications
accessed through mobile devices are likely to be a major driver of demand
for broadband access. In Africa, for example, the number of mobile broadband subscriptions is more than double the number of wireline broadband
subscriptions.36
An example of the power of social media can be seen in its role in the 2011
so-called Arab Spring uprisings. Protest organizers used websites such as
Facebook, Twitter, and YouTube in addition to texting and other narrowband technologies to coordinate protest activities. Social media facilitated
the spread of information about citizens’ grievances, through YouTube videos and conversations on social websites, when oicial or traditional media
sources may not have given those grievances much or any coverage. These
online tools also enabled the organizers to spread awareness and increase
participation and attendance at demonstrations faster than more traditional
media could allow.
Indonesia is another good example of mobile broadband’s use in social
networking. It has become the world’s second-largest Facebook country,
reaching 39 million users as of June 2011.37 One of the reasons for Facebook’s
popularity in Indonesia is that it is used as “a way to establish social status,
success, and as a platform for self-promotion” (Thia 2011). This resonates
with many people in developing countries, where Facebook has emerged as
the leading application.38 Indonesia’s hunger for social networking extends
to Twitter, which has the world’s highest penetration: around one-fifth of
Indonesian Internet users access the microblogging application.39 All of this
has spurred demand for faster connectivity, with mobile broadband speeds
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rising to 40 Mbit/s (Indosat 2010). Since social media focuses on usergenerated content, that content can be quite localized, meaning that it is in
local languages and character sets and on topics that are locally relevant.
Having localized content is an important part of stimulating demand.
Social Collaboration: Wikis, Mashups, and Crowdsourcing
Web 2.0 applications allow for more than simply connecting with others
and sharing information—they also allow people anywhere in the world to
create content through blogs and podcasts, to co-create content, such as
through wikis, to link diferent types of content from diferent sources
together to create new media (for example, mashups), or to create social
tags to identify folksonomies. Although perhaps to a lesser extent than
social networking applications, these social collaboration tools help to
increase the demand for broadband services by engaging users and making
the online experience more personalized and flexible. They draw on the
idea of the “wisdom of the crowd,” which refers to practices where opinions
and information are collectively created rather than arrived at by a single or
small group of experts.
Wikipedia is a well-known example of such social collaboration. The
popular collaborative encyclopedia is multilingual, web-based, free to
access, and written by Internet volunteers, most of whom are anonymous.
Anyone with Internet access can write and make changes to Wikipedia articles, and there are currently more than 91,000 active contributors around
the world, of which nearly 60 percent create and edit non-English articles.40
Launched in 2001, Wikipedia is now available in 281 languages—the English
Wikipedia contains over 3.6 million distinct articles, followed by German
with 1.2 million and French with 1.1 million.41 Users can also create mashups, which are interactive web applications that integrate content (for
example, video, text, audio, or images) retrieved from third-party data
sources in order to create new and innovative services and applications
(Merrill 2009). Mashup websites tend to rely on external websites that use
open-source application programming interfaces (APIs), which expose all
of the instructions and operations in an application to facilitate the interaction between diferent software programs. Mashups may be as simple as a
restaurant’s website embedded with a single API, such as a Google map to
make it easier for customers to find. Other mashups combine multiple APIs.
For example, a web-based interactive restaurant guide could use APIs from
sites with online reviews, photos, and maps to indicate the best places to eat
in a given city and where to find them.
Crowdsourcing is a Web 2.0 application referring to the outsourcing of
tasks to a large, undefined group or community (the “crowd”) through an
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open call for assistance, such as via Twitter, Facebook, or a dedicated webpage. Following the 2010 earthquake in Haiti, the Crisis Map of Haiti used
crowdsourcing to coordinate relief eforts on the island. Those in need could
submit incident reports via the organization’s website, phone, SMS, e-mail,
Facebook, Twitter, and so forth and thus request aid or even report missing persons. After being reviewed by volunteers, the reports were mapped
with global positioning system coordinates in near real-time on a map
also showing shelter sites and hospitals. These tools helped to speed
search-and-rescue eforts and provide vital supplies to those most needing them. The events in Haiti provide a model for how to deal with future
disasters, both natural and man-made, as well as demonstrating a practical application of Web 2.0 technologies.
Collaborative Working Tools for Businesses and Institutions
Businesses and institutions are taking advantage of Web 2.0 applications
(often referred to as Enterprise 2.0) to improve productivity and eiciency
as well as lower costs. Generally, Web 2.0 applications not only are less
expensive, faster to deploy, and more flexible than commercial or customized software packages, but also ofer built-in collaborative workspace tools
that enable people to interact across diferences in time and space (Kuchinskas 2007). These tools often center around “groupware,” which allows
multiple people to work together on projects and share documents, calendars, and other data and to participate in video and audio conferences. Since
Web 2.0 apps require large amounts of bandwidth to download and upload
the various types of digital media, a broadband connection is essential.
Education and Web 2.0
Support for school connectivity programs can be strengthened through the
use of Web 2.0 applications in education. Even where virtual classrooms or
other e-learning tools are in use, Web 2.0 tools can replace or complement
expensive virtual learning environment (VLE) software to provide a more
flexible approach through the use of blogs, wikis, and other collaborative
applications. For example, a classic VLE involves the teacher sharing slides
and resources with students through an enabling software program. Web 2.0
applications, such as Slideshare for presentations, Google Docs for documents, Flickr for images, and YouTube for videos, however, are capable of
replicating the core functions of the VLE software at no cost to educators or
students (Robertson 2011). Open-source and cloud technologies also allow
for more educational opportunities where fewer resources are available. For
example, students without personal computers can complete assignments at
a university computer lab or Internet café via Google Docs. Other services,
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such as Flat World Knowledge’s open-source textbooks, allow professors to
review, adopt, and even customize textbooks for their classes, which students can then purchase in print format or view online for free, further
reducing the cost of education. Additionally, teachers can incorporate blogging and wikis to encourage student participation and interaction.
A 2009 study by the Joint Research Centre of the European Commission
on e-learning initiatives in Europe found that student and teacher participation in Web 2.0 applications supports technological innovation in education
and training by providing new formats for knowledge dissemination, acquisition, and management (Redecker et al. 2009). These tools increase the
accessibility and availability of learning content through a range of platforms that ofer a large variety of educational material. Further, Web 2.0
tools support new strategies for studying a subject matter by making available a host of dynamic tools for transforming content and displaying information in diferent formats as well as contribute to diversifying and
enhancing teaching methods. Students are able to have more personalized
and flexible lessons targeting their specific needs and are able to learn valuable networking and community-building skills. Additionally, these tools
allow collaboration among geographically dispersed groups and can facilitate intercultural exchange and cross-border, cross-institutional collaboration, while reduced costs allow institutions in developing countries to
compete with those in other areas.
Content to Drive Broadband Demand
Ultimately, what motivates people to buy broadband services and devices is
that they believe broadband will enrich their lives, ofer convenience, provide entertainment, and improve their businesses. The network infrastructure or policies in place to expand broadband access are less important to
end users on a day-to-day basis than the availability of relevant and useful
online services and applications that allow them to access, create, and share
content. What Bill Gates said about the Internet in 1996 remains true today:
“Content is King.” Attractive and useful content and, increasingly, context
(with the development of location-based services, which require broadband
access) are perhaps the most important underlying elements of broadband
adoption.
Promoting Digital Content
“Digital content” is a catch-all for the myriad websites, applications, and
services available to broadband users. It can be based on text, audio, video,
or a combination of these. Much of the content available on websites today
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can be divided into three broad categories: (a) user generated, (b) proprietary or commercial, and (c) open source. User-generated content includes
social networking and things such as blogs, podcasts, Twitter updates, YouTube videos, and Flickr photos. Addressed above, these forms of social
media help to drive broadband demand by engaging users and ensuring the
local and personal relevance of content. Due to the “bottom-up” nature of
social media, policy makers can support the development of such content by
taking a more hands-of approach in regulating it (see chapter 3). They can
also promote such services by becoming active users of such applications
and services; more and more government agencies and even politicians are
realizing the value of such tools in reaching out to citizens.
As opposed to copyrighted materials, open-source content is available
free-of-charge. In addition, the source code is also freely available to allow
anyone wanting to incorporate the content or application into new forms of
media, such as in mashups. Open-source content has led to the creation of
property rights systems that encourage collaboration by publishing source
code and allowing other users to extend those applications and develop
them further, with the provision that the result should also be governed by
the same open-source property rights.
Promoting Local Content
Native English speakers currently account for the majority of Internet users
around the world; thus, most web content is in English.42 Figure 6.6 shows
the number of Internet users by language, which is a common metric for
gauging the influence of diferent languages on Internet content. English
continues to dominate, but the number of Internet users in China is rising
quickly and expected to exceed the number of English language users in the
next five years (Wilhelm 2010). Despite this shift, a significant obstacle to
Internet and broadband use by non-English speakers is the scarcity of content in their own languages.
Eforts to create content that is relevant and interesting, using the local
language and character sets, is expected to increase the demand for broadband services in local areas. For example, in 2010, the Kenya ICT Board
launched a grant of K Sh 320 million (US$3.7 million) to promote the development of relevant, local digital content and software by targeting entrepreneurs in the film, education, entertainment, and advertising industries. The
goal of the project is to increase Internet penetration and promote local
content, which is viewed as a potential area for new revenues in the country.
In addition to direct grants for the production of local content, governments can support the development of local content and applications in
other ways, such as the development of standardized keyboards, character
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Figure 6.6
Number of Internet Users Worldwide, by Language, 2010
536.6
English
444.9
Chinese
Spanish
153.3
99.1
Japanese
82.5
Portuguese
German
75.2
Arabic
65.4
French
59.8
Russian
59.7
39.4
Korean
All the rest
350.6
0
50
100 150 200 250 300 350 400 450 500 550 600
number of users (millions)
Source: Internet World Stats, “Top 10 Languages Worldwide in Millions of Users,” http://www.internetworldstats.com/stats7.htm.
sets, and character encoding. This type of indirect intervention would afect
the content available by enabling users to create content in their own languages.43 Additionally, translation and standardization of operating systems
into local languages can help to facilitate the development of local applications that are relevant and comprehensible to local users.44 Governments
can also play an important role in developing local content and local applications by directly creating local content and local applications in the form
of e-government applications, as described above.
Some forms of user-generated content, such as YouTube videos, face
fewer barriers to expression, as the speaker is recorded directly in his or her
own language. YouTube has launched a localization system, where YouTube
is available in 31 local versions as well as a worldwide version.45 This helps
to overcome some of the barriers to content reaching a possible community
of interest, but not entirely, as content generated in languages other than
Driving Demand for Broadband Networks and Services
285
those used in the 31 local versions or the worldwide version may encounter
barriers to reaching an audience.
Nevertheless, it is likely that greater amounts of local content will continue to become available in the near term. For example, a website called
d1g.com is a platform in Arabic for sharing videos, photos, and audio, a
forum, and a question and answer facility. Launched in 2007, d1g.com is one
of the Arab world’s fastest-growing social media and content-sharing websites, with more than 13 million users and 4.8 million unique monthly visitors. It has 15 million videos and streams an extensive amount of Arabic
videos—600 terabytes of data per month. Notably, nearly 100 percent of d1g.
com’s content is user generated, with a small amount produced in-house.
d1g.com became the most popular Arab social media site (after Facebook
and Twitter) when a user created the “Egyptstreet” diwan during the
Egyptian revolution. During that time, unique visitors rose from 3 million to
5 million per month, and visits per month grew from 6 million to 13 million.
Notes
1. Cisco, “Visual Networking Index, Global IP Traic Forecast 2010–2015,” June
2011, http://www.cisco.com/en/US/netsol/ns827/networking_solutions_sub_
solution.html#~forecast.
2. Based on the Pew Research Center’s survey, almost half of the non-Internetuser adults surveyed in the United States indicated that they did not use the
Internet because they did not find it relevant (they were not interested,
considered it a waste of time, were too busy, or did not feel it was something
they wanted or needed). See Pew Internet and American Life Project (2010).
3. Some examples of civil society organizations involved in making Internet and
especially broadband services more available, accessible, and attractive include
Tribal Digital Village, which works with Native American reservations in the
United States (see http://www.sctdv.net), and CUWiN (Champaign-Urbana
Community Wireless Network), which develops community-based wireless
mesh technologies in various communities in the United States, West Africa,
and South Africa (see http://www.cuwin.net).
4. MCMC, “National Broadband Initiative Overview,” http://www.skmm.gov.my/
index.php?c=public&v=art_view&art_id=36.
5. The level of basic literacy required to make efective use of a network may actually be lower for a broadband network than for a narrowband network, because
of the greater opportunity to use visuals, sound, and icons rather than simple
text. This may be important in low-literacy environments.
6. European Commission, “Information Society Thematic Portal: June 2006, Riga
Ministerial Conference, ICT for an Inclusive Society,” http://ec.europa.eu/
information_society/activities/einclusion/events/riga_2006/index_en.htm.
7. See European Commission, “e-Inclusion,” http://ec.europa.eu/information_
society/activities/einclusion/index_en.htm.
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8. ITU, “Connect a School, Connect a Community Toolkit, Module 1: Policies and
Regulation to Promote School Connectivity,” http://www.connectaschool.org/
itu-html/1.
9. Servicio Nacional de Aprendizaje, “Home Page,” http://www.sena.edu.co.
10. ITU, “Connect a School, Connect a Community Toolkit, Module 2: Disseminating Low-Cost Computing Devices in Schools,” http://www.connectaschool.org/
itu-html/8. For a discussion of a Peruvian one-to-one school laptop program,
see Trucano (2010).
11. Cisco, “About Networking Academy Program Overview,” http://www.cisco
.com/web/learning/netacad/academy/index.html.
12. European Commission, “Connecting Europe at High Speed: Recent Developments in the Electronics Communications Sector,” Europa Press Release,
Brussels, February 3, 2004, http://europa.eu/rapid/pressReleasesAction.do?
reference=IP/04/154&format=HTML&aged=0&language=EN&guiLanguage
=en.
13. Ovum, “Emerging Markets Paying Three Times More Than Rest of the World
for Broadband,” September 20, 2010, http://about.datamonitor.com/media/
archives/4775.
14. Colombia, Ministerio de Tecnologías de la Información y las Comunicaciones,
“Ecosistema Digital: Servicios,” http://201.234.78.242/vivedigital/
ecosistema_2_servicios.php.
15. For a further example, see the global nonprofit organization One Economy
Corporation, http://www.one-economy.com/who-we-are. International
locations include Turkey, Jordan, Israel, Cameroon, Kenya, Nigeria, Rwanda,
South Africa, and Mexico.
16. See ITU, “Connect a School, Connect a Community Toolkit: Uruguay Case
Study,” http://www.connectaschool.org/en/schools/connectivity/devices/
section_5.7/case_studies/Uruguay.
17. ITU, “Connect a School, Connect a Community Toolkit, Module 2: Disseminating Low-Cost Computing Devices in Schools,” http://www.itu.int/ITU-D/sis/
Connect_a_school/Modules/Mod2.pdf.
18. ITU, World Telecommunications/ICT Indicators database, http://www.itu.int/
ITU-D/ict/statistics/at_glance/KeyTelecom.html.
19. For example, in 2008, Radio Shack in the United States ofered a laptop for
US$99, along with an AT&T data card and a two-year service contract for
US$60 a month (Kraemer 2008).
20. The commercial information presented was current as of the preparation of
this report. Commercial service oferings in this sector are subject to frequent
change.
21. “The Switch to LTE: When’s the Tipping Point?,” Motorola eZine, http://www
.motorola.com/web/Business/Solutions/Industry%20Solutions/Service%20
Providers/Network%20Operators/_Documents/_static%20files/LTE%20
Tipping%20Point.pdf?localeId=33.
22. “Broadband Laptop Bundles: The Best Deals,” My Broadband, July 2010, http://
mybroadband.co.za/news/broadband/13694-Broadband-laptop-bundles-Thebest-deals.html.
Driving Demand for Broadband Networks and Services
287
23. Ultimately, the subsidies were not paid exactly this way; the initial connections
were subsidized by government at the rate of €800, and service for the first
several years was free.
24. ECLAC, “Observatory for the Information Society in Latin America and the
Caribbean (OSILAC),” http://www.cepal.org/tic/flash/, as cited in ECLAC
(2010, 32).
25. India, Department of Information Technology, “National e-Governance Plan,”
http://mit.gov.in/content/national-e-governance-plan.
26. Kerala State IT Mtission, “Friends,” http://itmission.kerala.gov.in/ksitm-egovernance-projects/82-friends.html.
27. For an example of some of the regulatory obligations relating to Internet
Protocol telephony in Australia, see Australian Communications and Media
Authority, “VoIP for Service Providers,” http://www.acma.gov.au/WEB/
STANDARD/pc=PC_310067.
28. See BT, “BT Vision,” http://www.productsandservices.bt.com/consumer
Products/displayCategory.do;JSESSIONID_ecommerce=WWG1Nf2Lyz
DZSCd20Z7Kwc8MqZQMj4ZFbcrChsfrTGbw2MRYPvv2!-229543251?
categoryId=CON-TV-I.
29. American Library Association, “Civic Participation and e-Government,” http://
www.ala.org/ala/issuesadvocacy/egovtoolkit/civicparticipation/index.cfm.
30. Colombia, Ministerio de Tecnologías de la Información y las Comunicaciones,
“Vive Digital Colombia,” http://vivedigital.gov.co/.
31. Maintaining the security and privacy of patient health information and records
is critical. More information on safeguards that have been developed can be
found at the following: for the United States, http://www.hhs.gov/ocr/privacy/;
for Canada, http://www.ipc.on.ca/english/Home-Page/; for the United Nations,
http://www.hon.ch/home1.html.
32. telecomAfrica, “mHealth: Pushing Frontiers of Health Care in Developing
Countries,” February 16, 2011, http://telecomafrica.org/?p=780.
33. Ericsson, “Ericsson and Apollo Hospitals to Bring Healthcare Access to Rural
India,” Press Release, June 5, 2008, http://www.ericsson.com/ericsson/press/
releases/20080605-1225191.shtml.
34. For more information, visit http://g3ict.org.
35. Facebook, “Statistics,” https://www.facebook.com/press/info.php?statistics.
36. ITU, “ITU ICT EYE: Dynamic Reports for Mobile Broadband and Fixed
Broadband Subscriptions per 100 Inhabitants,” http://www.itu.int/ITU-D/
ICTEYE/Reporting/DynamicReportWizard.aspx.
37. “Infographic: Facebook’s Indonesia Users Overtake the UK,” The Guardian,
April 6, 2011, http://www.guardian.co.uk/media/pda/2011/apr/06/
facebook-statistics.
38. For example, a study among mobile users in 10 Southeast Asian nations found
that Facebook was the top site in five of them, the second ranked site in three,
the third ranked in one, and not among the top 10 in only one of the countries.
Opera Software, “State of the Mobile Web,” January 2011, http://www.opera
.com/smw/2011/01/#snapshot.
39. comScore, “Indonesia, Brazil, and Venezuela Lead Global Surge in Twitter
Usage,” Press Release, August 11, 2010, http://www.comscore.com/Press_Events/
288
Broadband Strategies Handbook
40.
41.
42.
43.
44.
45.
Press_Releases/2010/8/Indonesia_Brazil_and_Venezuela_Lead_Global_Surge_
in_Twitter_Usage.
Wikipedia, “Wikipedia: About,” http://en.wikipedia.org/wiki/Wikipedia:About.
WikiMedia, “List of Wikipedias,” as of March 23, 2011, http://meta.wikimedia
.org/wiki/List_of_Wikipedias.
Pimienta, Prado, and Blanco (2009, 35) compare the presence on the Internet
of English with European languages. For every 100 pages in English on the
Internet in 2007, there were 8 in Spanish, 10 in French, 6 in Italian, 3 in
Portuguese, and 13 in German.
For example, there is no standardized keyboard layout for Pashto, an IndoIranian language spoken by about 25 million people in Afghanistan, India, the
Islamic Republic of Iran, Pakistan, Tajikistan, the United Arab Emirates, and
the United Kingdom. There is a standard for Pashto text encoding, so some
progress has been made. However, there is no standard interface terminology
translation in Pashto, which makes achieving digital literacy more challenging.
See Hussain, Durrani, and Gul (2005).
Sri Lanka’s ICT Agency has a Local Languages Initiative to enable ICT in
languages such as Sinhala or Tamil (http://www.icta.lk/en/programmes/
pli-development/68-projects/557-local-languages-initiative-lli.html).
Wikipedia, “YouTube,” http://en.wikipedia.org/wiki/YouTube.
References
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Australia, MCEECDYA (Ministerial Council for Education, Early Childhood
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———. 2008b. National Assessment Program: ICT Literacy Years 6 and 10 Report
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Battisti, Daniela. n.d. “Broadband Policies: Focus on the Italian Government Action
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Byrne, Joseph. 2009. “Cellular Modems Gain Favor.” Linley Group, February 1.
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DuBravac, Shawn G. 2007. “Broadband in America: Access, Use, and Outlook.”
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reports/ict-report.
ESA (Economics and Statistics Administration) and NTIA (National Telecommunications and Information Administration). 2010. “Exploring the Digital Nation:
Home Broadband Internet Adoption in the United States.” U.S. Department of
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files/reports/documents/report.pdf.
European Commission. 2008. E-Inclusion Ministerial Conference, Conference
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pdf.
Favaro, Edgardo, Samia Melhem, and Brian Winter. 2008. “Small States, Smart
Solutions: Improving Connectivity and Increasing the Efectiveness of Public
Services.” In E-Government in Cape Verde, ch. 6. Washington, DC: World Bank.
http://siteresources.worldbank.org/INTDEBTDEPT/Resources/468980-120697
4166266/4833916-1206989877225/SmallStatesComplete.pdf.
Gobry, Pascal-Emmanuel. 2011. “HUGE: Mobile Broadband Will Hit 1 Billion Users
in 2011.” Business Insider, January 12. http://www.businessinsider.com/
mobile-broadband-will-hit-1-billion-users-in-2011-2011-1.
Gupta, P. N., Ajay Kr. Singh, Vaneeta Malhotra, and Lavanya Rastogi. 2003. “Role of
IT Education in India: Challenges and Quality Perspectives.” Delhi Business
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v_4n2/v4n2h.pdf.
Hauge, Janice Alane, and James E. Prieger. 2009. “Demand-Side Programs to
Stimulate Adoption of Broadband: What Works?” October 14. http://ssrn.com/
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Hernandez, Janet, Daniel Leza, and Kari Ballot-Lena. 2010. “ICT Regulation in the
Digital Economy.” 2010 GSR Discussion Paper, Telecommunications Management Group, Inc., ITU, Geneva. http://www.itu.int/ITU-D/treg/Events/
Seminars/GSR/GSR10/documents/GSR10-paper3.pdf.
Hussain, Samad, Nadir Durrani, and Sana Gul. 2005. “Pan-Localization, Survey of
Language Computing in Asia.” Center for Research in Urdu Language Processing, National University of Computer and Emerging Sciences, Lahore.
http://www.panl10n.net/english/outputs/Survey/Pashto.pdf.
Indosat. 2010. Unleashing Our Potential: 2010 Annual Report. Jakarta: Indosat.
Kim, Yongsoo, Tim Kelly, and Siddhartha Raja. 2010. “Building Broadband:
Strategies and Policies for the Developing World.” Global Information and
Communication Technologies Department, World Bank, Washington, DC, June.
http://www.infodev.org/en/Publication.1045.html.
Kraemer, Brian. 2008. “Radio Shack’s $99 Acer Aspire Notebook Too Good to
Be True.” CRN, December 12. http://www.crn.com/blogs-op-ed/
the-channel-wire/212500037/radio-shacks-99-acer-aspire-notebook-toogood-to-be-true.htm.
Kramer, Kenneth, Jason Dedrick, and Prakul Sharma. 2009. “One Laptop per Child:
Vision vs. Reality.” Communications of the ACM 52 (6, June): 66–73. http://dl
.acm.org/citation.cfm?id=1516063.
Kuchinskas, Susan. 2007. “A Beginner’s Guide to Web 2.0 Tools for Business.”
BNET, May. http://www.bnet.com/article/a-beginners-guide-to-web-20tools-for-business/66096.
Mansfield, Ian. 2010. “Social Networking Dominates UK Mobile Broadband Traic.”
Cellular-News, October 28. http://www.cellular-news.com/story/46136.php.
Merrill, Duane. 2009. “Mashups: The New Breed of Web App.” IBM developerWorks, July 24. http://public.dhe.ibm.com/software/dw/xml/x-mashups-pdf
.pdf.
Muller, Rudolph. 2011. “The Best Entry-Level Broadband Deal in SA.” My Broadband, April. http://mybroadband.co.za/news/broadband/19633-The-best-entrylevel-broadband-deal.html.
Obura, Fredrick. 2010. “ICT Board Sh320m Grant to Promote Local Content.” The
Standard, June 1. http://www.standardmedia.co.ke/InsidePage.php?id=2000010
692&cid=14&story=ICT%20Board%20Sh320m%20grant%20to%20promote%
20local%20content.
OECD (Organisation for Economic Co-operation and Development). 2008.
“Broadband Growth and Policies in OECD Countries.” Paper prepared for the
OECD “Ministerial Meeting on the Growth of the Internet,” Paris. http://www
.oecd.org/dataoecd/32/57/40629067.pdf.
Oestmann, Sonja. 2003. “Mobile Operators: Their Contribution to Universal
Service and Public Access.” Intelecon Research and Consultancy, Vancouver,
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nO2Yuq2Z6gpJCDeoF6fmym162epYbg2c_JjKbNoKSn6A--.
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CHAPTER 7
Global Footprints: Stories from
and for the Developing World
Developing nations face many barriers to broadband development, on both
the demand and supply sides.1 These include a shortage of wireline infrastructure, constrained inter- and intramodal competition, low income, and
limited awareness. Developing countries also often face challenges such as
weak regulatory and legal frameworks and significant diferences between
rural and urban areas. As a result, they typically lag behind developed economies in broadband penetration (figure 7.1), although there are exceptions
such as some nations in the Caribbean or the Arab Gulf states.
Many studies show that broadband can enable economic growth (see
chapter 1). Broadband is also an agent for economic, social, and political
development as well as a platform for innovation, an enabler of small and
medium enterprise (SME) growth, and a facilitator of new firm foundation.
This is particularly relevant for countries facing the challenge of development and looking to raise the standard of living of their citizens and foster
social, human, and political progress. In that regard, it is useful to look at
international objectives for promoting development and examine how
broadband can be part of the strategy to achieve these goals.
Broadband has taken on increased relevance within the development
community because of its potential to reduce poverty and better enable
countries to participate in the global information society. International
295
Figure 7.1 Global Broadband Subscriptions per 100 People, Wireline and Wireless
(Active), by Region and Income Level, 2010
a. Wireline broadband
subscriptions (per 100 people)
8.4
Europe and Central Asia
7.2
Latin America and the Caribbean
East Asia and Pacific
7.0
Middle East and North Africa 1.5
South Asia 0.8
Sub-Saharan Africa 0.2
World
7.6
high-income
upper-middle-income
7.5
lower-middle-income
4.0
low-income 0.03
b. Wireless broadband
subscriptions (per 100 people)
Latin America and the Caribbean
Europe and Central Asia
East Asia and Pacific
Middle East and North Africa
Sub-Saharan Africa
South Asia
World
high-income
26.3
upper-middle-income
lower-middle-income
low-income
4.1
3.5
3.3
1.3
0.7
0.2
6.5
30.1
6.5
4.1
1.9
Source: World Bank analysis based on data from the International Telecommunication Union and ictDATA.org.
Note: In the case of wireless broadband, refers to subscriptions providing at least 256 kilobits per second (kbit/s)
download speed. In the case of wireless broadband, refers to active subscriptions (using wireless broadband
networks to access the Internet). Regions refer to developing-country members only (that is, non-high-income
economies).
agreements on development and information and communication technologies (ICTs) provide a context for the significance of broadband in developing countries.
This chapter looks at the Millennium Development Goals (MDGs) and
World Summit on the Information Society (WSIS) targets as a global roadmap for developing-country policy makers. It also reviews broadband
bottlenecks and opportunities in developing nations, summarizes the
broadband status of developing regions, identifies regional and national
policies for boosting broadband penetration, and identifies groups of countries that face specific income, geographic, or other limiting conditions. The
last section of the chapter provides summaries of broadband experiences in
selected countries.
Broadband and Global Goals for
Developing Countries
In September 2000, governments adopted the Millennium Declaration,
committing their nations to reducing poverty monitored through measurable targets (box 7.1). The targets have a 2015 deadline and are known as the
MDGs.2 Several reports have illustrated how ICTs can help to achieve the
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Box 7.1: The Eight Millennium Development Goals
• Eradicate extreme poverty and hunger.
• Achieve universal primary education.
• Promote gender equality and empower
women.
• Reduce child mortality.
• Improve maternal health.
• Combat HIV/AIDS (human immunodeficiency virus/acquired immunodeficiency
syndrome), malaria, and other diseases.
• Ensure environmental sustainability.
• Develop a global partnership for development.
Source: United Nations, MDG Monitor.
MDGs (for example, see ITU 2003; Broadband Commission 2010). Broadband is no diferent, and its impact on the MDGs may be greater than that
of any other ICT. For example, one of the barriers to achieving Goal 2 on
universal primary education is the lack of primary school teachers. Broadband, in particular, can facilitate fast-track teacher training through distance education and e-learning. In addition, three of the MDGs are related
to health, and high-speed networks can have an impact through applications such as telemedicine. The importance of ICTs for achieving the
MDGs is also highlighted by Goal 8 on developing a global partnership for
development, specifically Target 8.F: “In cooperation with the private sector, make available the benefits of new technologies, especially information
and communications.”3 As an ICT itself, as well as a “pipe” capable of delivering ICTs, broadband may be considered an integral part of Target 8.F.
The WSIS, which was held in two phases, in 2003 in Geneva and in 2005
in Tunis, set an internationally agreed agenda for the adoption of ICTs
worldwide and illustrated the level of global political commitment to
deploying broadband networks across diferent sectors.4 The Declaration of
Principles identifies ICTs as an “essential foundation for the information
society,” noting, “A well-developed information and communication network infrastructure and applications, adapted to regional, national, and
local conditions, easily accessible and afordable, and making greater use of
broadband and other innovative technologies where possible, can accelerate the social and economic progress of countries, and the well-being of all
individuals, communities, and peoples.” WSIS adopted 10 targets addressing connectivity across diferent sectors (box 7.2). The International Telecommunication Union (ITU) has reviewed progress toward the WSIS
Global Footprints: Stories from and for the Developing World
297
Box 7.2: The 10 WSIS Targets
• Connect villages with ICTs and establish
community access points.
• Connect universities, colleges, secondary
schools, and primary schools with ICTs.
• Connect scientific and research centers
with ICTs.
• Connect public libraries, cultural centers,
museums, post offices, and archives
with ICTs.
• Connect health centers and hospitals
with ICTs.
• Connect all local and central government
departments and establish websites and
e-mail addresses.
• Adapt all primary and secondary school
curricula to meet the challenges of the
information society.
• Ensure that all of the world’s population
has access to television and radio services.
• Encourage the development of content
and put in place technical conditions in
order to facilitate the presence and use
of all world languages on the Internet.
• Ensure that more than half of the world’s
inhabitants have access to ICTs within
their reach.
Source: WSIS 2003.
targets and emphasized that most should be considered as having a broadband component:
It is widely recognized that ICTs are increasingly important for economic and
social development. Indeed, today the Internet is considered as a generalpurpose technology and access to broadband is regarded as a basic infrastructure, in the same way as electricity or roads. . . . Such developments need to be
taken into consideration when reviewing the WSIS targets and their achievement, and appropriate adjustments to the targets need to be made, especially
to include broadband Internet (ITU 2010b, 2).
Taken together, the MDGs and WSIS targets provide a global roadmap for developing-country policy makers. Broadband can help to
achieve the MDGs and thus place high-speed networks within the context of overall national development goals, while the WSIS targets can
aid the monitoring of broadband deployment across diferent sectors. In
other words, broadband is not an end unto itself but a means to an end
(for example, broadband can be a means to achieving universal primary
education).
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Broadband Bottlenecks and Opportunities
in Developing Regions
Improving access to broadband networks requires addressing supply- and
demand-side bottlenecks. On the supply side, there are two broadband
routes with diferent characteristics and market developments: wireline
and wireless. The three main wireline broadband technologies in use are
digital subscriber line (DSL), cable modem, and fiber to the premises
(FTTP); figure 7.2. DSL is the predominant technology, accounting for
almost two-thirds of wireline broadband subscriptions in 2010. Broadband
access over cable television (CATV) networks is used by one in five subscriptions around the world. FTTP accounts for just 16 percent of global
wireline broadband, but its share has grown since 2005, while the shares of
DSL and cable modem have dropped.
Wireline broadband requires an underlying wired infrastructure. In the
case of DSL, this consists of the copper lines used to connect subscribers to
the telephone network. In the case of cable modem, it is the coaxial cable
used to provide television (TV) access to subscribers (see chapter 5). Fiber
optic broadband uses flexible glass enclosed by cables running directly to
the home or building. Significant investments are required in order to
Figure 7.2 Global Distribution of Wireline Broadband Subscriptions,
2005 and 2010
a. 2005
b. 2010
FTTP
9%
DSL
64%
FTTP
16%
cable
modem
24%
cable
modem
20%
DSL
67%
total: 209 million
total: 523 million
Source: Point-Topic.
Global Footprints: Stories from and for the Developing World
299
deploy any wireline infrastructure. For developed countries that have been
building out telephone and CATV infrastructure for decades, investment
costs in these technologies have often already been recouped. Taking advantage of networks with greater capacity, however, requires additional investments in fiber optic networks. Many developing countries lack extensive
wireline infrastructure, and investments in telephone, cable, and fiber optic
networks often require new up-front costs.
Given these constraints, the wireless broadband route appears more
promising for many developing nations and is especially attractive for serving nonurban populations. Although the deployment costs of mobile broadband are less than those of wireline, they are still significant. Converting
mobile networks to broadband readiness requires investment in spectrum
and equipment by operators and the purchase of new devices by users. This
results in high costs, at least initially, making mobile broadband more expensive for end users than current wireless services. Other wireless options
include technologies such as fixed wireless and satellite. Like mobile broadband, investments in spectrum and equipment are needed for terrestrial
fixed wireless technologies, and it may not be feasible to leverage the existing mobile infrastructure in terms of towers and backbone networks. Satellite broadband is an option, particularly for remote locations, but it is more
costly than other solutions for mass deployment and has usage limitations
for some applications.
Conditions vary across the developing world, and each country is
endowed with difering levels of communication networks. Some, such as
Costa Rica or Croatia, have a relatively well-developed wireline telephone
network that could support broadband deployment, while others, such as
China and Romania, have widespread CATV networks that are able to provide a measure of facilities-based competition to telephone service operators. The challenge in such cases is to create incentives so that existing
networks can be used to ofer broadband services in competition with one
another. In other countries, the challenge is to roll out broadband-capable
networks from scratch. Lithuania, for instance, has focused on greenfield
deployment of fiber to the premises; by 2010 around a quarter of Lithuanian
homes had fiber broadband access, ranking the country sixth in the world.5
Diversity in broadband infrastructure creates a higher degree of intermodal competition. Therefore, countries should consider how they could
leverage existing infrastructure to create greater competition in the broadband market. In 2009, the world was only using a little over one-fifth of telephone lines for DSL and around a third of CATV connections for cable
broadband; just over 10 percent of mobile subscriptions were broadband
(figure 7.3).
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broadband connections as a percentage of
total user base for each technology
Figure 7.3 Broadband Connections Relative to Underlying Infrastructure in 2008 or 2009, by Region
80
69
70
60
55
47
50
40
30
20
34
22
22
18
13 13
10
32
7 9 7
29
22
14
12
5
7
2 2
0 1 0
11
0 4
0
DSL/total mainlines
cable modem/total cable TV
3G/total wireless
North America
European Union
Europe and Central Asia
Latin America and the Caribbean
East Asia and Pacific
Middle East and North Africa
South Asia
Sub-Saharan Africa
World
Sources: Data for DSL from TeleGeography’s GlobalComms database (for 2008), data for third-generation (3G) wireless from
Wireless Intelligence (for 2008), and data for cable modems from ictDATA.org (for 2009).
Broadband is also dependent on demand-side constraints such as
accessibility to and afordability of broadband services as well as awareness of its benefits. Services, applications, and content are key drivers:
they need to be interesting, in the local language, and locally relevant. If
these demand-side issues are not tackled, a country risks creating a mismatch between supply and demand and will not be able to fulfill its
broadband potential. As shown in chapter 1, a country’s level of income
afects the ability to pay for broadband services, while education levels
afect awareness. Figure 7.4 illustrates the significant relationship
between broadband take-up and the United Nations Development Programme’s Human Development Index.
Although developing nations face supply- and demand-side bottlenecks in their broadband markets, they represent some of the fastestgrowing markets and ofer great potential as ICT uptake and broadband
deployments grow. According to Point-Topic, a broadband market analyst
company, the countries ranked as the top 10 fastest-growing broadband
markets are all emerging economies, and all saw more than 20 percent
growth in the number of broadband subscriptions in 2010 (figure 7.5).
Global Footprints: Stories from and for the Developing World
301
Figure 7.4
Broadband and Human Development, 2010
fixed broadband penetration, 2008
70
R2 = 0.783
60
50
40
30
20
10
0
0.1
0.2
0.3
0.4
0.5
0.6
0.7
Human Development Index, 2010
0.8
0.9
1.0
Source: United Nations Development Programme, http://hdr.undp.org/en/statistics/.
Figure 7.5 Growth in Wireline Broadband Subscriptions in the Countries
with the Fastest-Growing Broadband Markets, 2010
% growth in broadband
subscriptions during 2010
80
70
60
50
40
30
20
10
a
B
to
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Es
Ve
ne
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e
la
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a
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ia
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liv
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an
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yp
t,
Ar
ab
Jo
rd
an
ka
ia
iL
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s
In
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la
r
us
0
Source: Broadband Forum, citing Point-Topic, http://www.broadband-forum.org/news/download/press
releeases/2011/India2011.pdf.
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Broadband Strategies Handbook
Regional Developments
This section highlights broadband status in developing regions around the
world, including East Asia and the Pacific, Europe and Central Asia, Latin
America and the Caribbean, Middle East and North Africa, South Asia, and
Sub-Saharan Africa.
East Asia and the Pacific
East Asia and the Pacific region is home to world broadband leaders such as
the Republic of Korea; Hong Kong SAR, China; and Japan, where superhigh-speed access is increasingly becoming the norm and competitive markets have been stimulated through disruptive new entrants (box 7.3).
However, a wide broadband divide distinguishes “the mostly high-income
countries that are broadband leaders from the mostly middle- and lowincome countries that are broadband challenged” (ESCAP 2010).
Box 7.3: The Third Man: Encouraging Disruption in Broadband
Markets
Growth in some of the more successful developed-economy broadband markets has
been triggered by the entry of brand new
disruptive operators. These new service providers tend to be the third player entering
the market, shaking up duopolies of DSL
and cable broadband operators or a dominant incumbent and a major wireless operator. This is the case in the developed East
Asian economies of Korea, Japan, and Hong
Kong SAR, China, where new operators entered the broadband market with innovative
business plans and models, unsettling the
market and triggering a beneficial stimulus
to broadband growth.
• Hanaro entered the market in 1999 as a
facilities-based telephone operator in
competition with the incumbent Korea
Telecom. Soon after entry, Hanaro began
offering broadband DSL services resulting in intensive competition, a major factor in Korea’s rise as a top-ranked broadband country. Hanaro had captured a fifth
of the broadband market by 2010.
• Softbank entered the Japanese broadband market in 2001 by leasing unbundled
local loop lines from the incumbent telephone operators, and in 2004, it obtained
a facilities license and began deploying its
own infrastructure. Softbank acquired Japan’s third largest mobile operator in
2006, allowing it to enter the mobile
broadband market. Marketing its service
as Yahoo!BB, Softbank had an 11 percent
share of the broadband market in 2010,
and over a third of its subscribers were
getting speeds of 50 megabits per second (Mbit/s). According to the company,
(continued)
Global Footprints: Stories from and for the Developing World
303
Box 7.3 continued
“It is not an exaggeration to say that the
wireline broadband service in Japan was
created by the Softbank Group.”
• Hong Kong Broadband Network (HKBN)
entered the market in 2000 after it was
awarded a fixed wireless license. The
city’s compact high-rise building environment shaped HKBN’s technological strategy of installing in-building wiring; communications between buildings and HKBN’s
routers and switches were carried out using wireless transmission through rooftop antennas. HKBN was able to penetrate the market quickly and shook up the
quasi-duopoly between the incumbent
wireline operator and CATV company for
broadband provision. HKBN later acquired
a wireline license and once again is shaking up the market by deploying fiber optic
to the home. It had a 25 percent share of
the wireline broadband market by 2010.
The process of disruption has also occurred in some European markets where alternative operators initially entered using the
infrastructure of incumbent operators and
then, having established a foothold, began
investing in their own infrastructure. This is
the case in France and Italy:
• Free started as a dial-up operator in
France in 1999 and began providing
broadband services in 2002 using asymmetric DSL (ADSL) over France Telecom’s
unbundled local loop (ULL). In 2006, it began rolling out its own fiber to the home
(FTTH) network and intends to cover 4
million homes by 2012, representing an
investment of about €1 billion. Free has
been providing triple-play services since
December 2003. Its Internet Protocol
television (IPTV) service offers over 300
channels, and Free’s broadband speeds
range between 22 and 28 Mbit/s. In 2009
it was awarded the country’s fourth thirdgeneration (3G) license. Free had 22 percent of the French wireline broadband
market in 2010.
• In Italy, FASTWEB started by deploying a
fiber optic network in Milan. In 2001, it
began providing triple-play services using
DSL over Telecom Italia’s infrastructure.
The company has partnered with other
operators in a Fiber for Italy project where
they will pool resources to provide FTTH
in Italy’s 15 largest cities, an investment
expected to cost €2.5 billion. Meanwhile,
FASTWEB has also been building its own
FTTH network that passes nearly 2 million homes, offering speeds of up to 100
Mbit/s. FASTWEB had 13 percent of the
wireline broadband market in 2010.
Market-disruptive operators are spreading to emerging and developing economies:
• Starnet entered the Moldovan market in
2003, providing ADSL over the incumbent’s telephone network. In 2006, Starnet began providing voice over broadband
(VoB) and also started the construction of
its fiber optic network. In 2009, IPTV was
added to its portfolio, and by the end of
2010, Starnet had captured one-quarter of
the wireline broadband market.
• In Morocco, Wana was awarded wireless
broadband spectrum in 2006. A company
owned by national investors, it launched
services in 2007 using high-speed Evolution Data Optimized (EV-DO) technology.
(continued)
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Broadband Strategies Handbook
Box 7.3 continued
This resulted in intense competition with
the existing mobile operators and led to
the rapid adoption of 3G services, which
soon passed wireline broadband subscriptions. By the end of 2010, there were
1.4 million 3G subscribers in Morocco, almost three times the number of wireline
broadband connections. Wana had 41 percent of the mobile broadband market.
The lesson for developing countries is
that, while it is critical to open broadband
markets to competition, it is just as important to introduce brand new operators. Setting aside spectrum for a new operator and
lowering other market entry barriers, particularly those relating to the ability to provide
convergent services, can encourage this.
Source: Adapted from ITU 2008 and operating reports of the companies discussed and regulatory authorities
for broadband market shares; Softbank 2007; FASTWEB, “2010 NGN and Executive Customers Highlights of the
Year,” http://company.fastweb.it/index.php?sid=6.
Several developing countries in the region have deployed telephone and
CATV network infrastructures, but often they are not adequately upgraded
for wireline broadband access. For example, the region’s developed economies have been successful in developing broadband access through CATV
network infrastructure. This is not the case in the region’s developing
nations. Despite large CATV markets in some countries such as China, the
Philippines, and Thailand, broadband competition from CATV providers is
generally low. One reason is that networks have not been upgraded to support broadband access via cable modem. For example, despite having the
world’s largest CATV market, with almost 175 million subscribers in 2009,
China has relatively few cable modem subscriptions, and only about a quarter of its subscriptions are digital. This is likely to change with China’s new
Triple Network project announced in 2010.6 The project aims to enhance
convergence among telecommunications, Internet, and broadcast networks
by reducing barriers so that each market segment can provide any broadband service.
Most East Asian nations have licensed mobile broadband spectrum, and
in several of the region’s developing nations, mobile broadband subscriptions exceed wireline subscriptions. In Indonesia, Telkom had 3.8 million
mobile broadband subscriptions using data cards, compared with 1.6 million
wireline broadband subscriptions in December 2010 (Telkom Indonesia
2010). Mobile broadband coverage, however, still needs to be extended
throughout the region, mainly from urban to rural areas.
Global Footprints: Stories from and for the Developing World
305
Malaysia’s 2006 Information, Communications, and Multimedia Services 886 Strategy set several goals for broadband services, including an
increase in broadband penetration to 25 percent of households by the end
of 2006 and 75 percent by the end of 2010 (Kim, Kelly, and Raja 2010).
Despite growth, the ambitious target for 2010 has not yet been met, and the
government is now focusing on fixed wireless, 3G mobile, and fiber to the
home platforms to boost broadband adoption. To that end, it is funding a
fiber optic network that will connect about 2.2 million urban households by
2012. The network will be rolled out by Telekom Malaysia under a publicprivate partnership (PPP). The government will invest RM 2.4 billion
(US$700 million) in the project over 10 years, with Telekom Malaysia covering the remaining costs. The total cost of the project is estimated to be RM
11.3 billion (US$3.3 billion).
Connecting the Pacific region with broadband is a major challenge due to
its unique geographic challenges. It is critical for Pacific economies to gain
access to adequate bandwidth for supporting broadband development.
Many of the island nations in the region are widely dispersed, and backbone
networks are limited. Most countries rely on high-cost, limited-capacity
satellites, and only a few economies have access to fiber optic submarine
cables. The subregion has also been slow to develop mobile broadband, a
consequence of previously limited competition in mobile markets. However, several countries now have competitive mobile markets, which should
spur deployment of high-speed wireless networks (Howes and Morris
2008). Vietnam has made impressive strides in boosting international highspeed connectivity and broadband use. The case of Vietnam is highlighted
in the final section of this chapter.
Europe and Central Asia
The region is well positioned to promote broadband adoption, with populations enjoying relatively high levels of education and significant existing
wireline and cable television network build-out. However, the region is
highly diverse with regard to geography, integration, and income, making it
diicult to reach a common vision for broadband strategy. It ranges from
countries with large sea coasts to landlocked nations and from the Baltic
States to the Balkans and Eastern Europe to Central Asia, from members of
the Commonwealth of Independent States to the European Union, and
from low-income to high-income economies.
Several countries in the region adopted broadband strategies within the
framework of national ICT plans. Most of the plans were launched in the
early to mid-2000s and coincided with significant increases in broadband
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penetration. For example, in 2005, Moldova adopted its Information Society
Strategy, which incorporated tracking indicators to monitor the impact of
policies and programs on broadband access (Moldova, Government of
2005). Broadband penetration in Moldovan households rose from less than
1 percent in 2003 to 17 percent by 2009 (Moldova, ANRCETI 2010). International bandwidth availability rose significantly in the landlocked country
following completion of an optical fiber connection to Romania (box 7.4).
Some of the countries in the region rank among the top countries in the
world in broadband deployment and average download speeds. However,
many landlocked countries in Central Asia face the challenge of ensuring
that regional broadband backbones keep up with the region’s growing ICT
needs. Within that context, the Economic and Social Commission for Asia
and the Pacific (ESCAP) undertook a feasibility study in four countries:
Kazakhstan, the Kyrgyz Republic, Tajikistan, and Uzbekistan (ESCAP
Box 7.4: Impact of Improved Access to International
Connectivity: The Case of Moldova
Until April 2010, Moldova’s international connectivity market was entirely controlled by
state-owned incumbent Moldtelecom. Due
to this and because Moldova is a landlocked
country, private firms did not have direct access to the Internet. At that time, the government reformed its policy and procedures
to open the market to competition. By July
2010, three companies—mobile telephony
provider Orange and Internet service providers (ISPs) Starnet and Norma—successfully
applied to construct and operate crossborder fiber optic cables and gain direct
access to carriers via Romania.
The impact of liberalization on availability,
prices, and quality was immediate. International Internet bandwidth available in
Moldova went from 13 gigabits per second
(Gbit/s) in December 2009 to over 50 Gbit/s
in July 2010. In response, Moldtelecom
dropped the prices for wholesale connectivity by a third over that same time, with
some of this drop coming in anticipation of
the liberalization in late 2009. Retail subscribers in some parts of the country have
already seen their available bandwidth double, while subscription rates have remained
the same.
As Moldova looks to establish its position
as an ICT hub in Eurasia, this move marks
the first step toward connecting Moldova’s
fledging information technology (IT)–based
services to global markets. Improved connectivity will allow SMEs to connect with
new markets at lower prices and enhance
their competitiveness. However, the country
needs to inject greater competition by removing all entry barriers.
Source: World Bank analysis.
Global Footprints: Stories from and for the Developing World
307
2009). Results of the study were issued in the report “Broadband for Central
Asia and the Road Ahead,” which included the findings that these countries
have low Internet access speeds coupled with high costs to consumers for
broadband services, which has afected adoption (ESCAP 2009). As such,
ESCAP recommended that expansion of a regional broadband network is “a
fundamental element” to satisfying broadband demand in these countries.
Turkey’s government recognizes the importance of a vibrant telecommunications market and is keen to promote the spread of broadband. For
instance, many educational institutions now have broadband access. The
Information Society Strategy for 2006–10 aimed to develop regulation for
efective competition and to expand broadband access. Targets included
extending broadband coverage to 95 percent of the population by 2010 and
reducing tarifs to 2 percent of per capita income. The regulator has also
looked at issuing licenses for the operation of broadband fixed wireless
access networks in the 2.4 gigahertz (GHz) and 3.5 GHz bands. The case of
Turkey is highlighted in a case study later in this chapter.
Latin America and the Caribbean
The Latin America and the Caribbean region has a relatively high number
of wireline telephone lines and CATV subscribers compared to other
developing regions. Cable broadband has been particularly successful,
with over half of the subscribers having a broadband subscription. In contrast, the number of telephone lines being used for broadband (via DSL) is
relatively low.
Mobile broadband development initially lagged compared to other
regions. One factor related to delays in the award of new spectrum bands
used specifically for 3G services. However, this was mitigated somewhat by
policies throughout the region that allow operators to use their existing
850/900 megahertz (MHz) spectrum, originally allocated for voice, for
high-speed mobile data services. Compared to the typical frequencies
awarded in many countries for mobile broadband, these frequencies support wider coverage with fewer base stations so that investment costs are
lower (Roetter 2009).
On the demand side, Latin America and the Caribbean fares favorably
compared to other developing regions. Education levels are relatively high,
and the existence of common languages throughout many countries—
Spanish in Latin America and English in much of the Caribbean—results in
access to considerable content, spurring demand. Despite relatively high
per capita income for a developing region, incomes are highly skewed,
and afordability remains an issue. For example, over half of Mexican
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households reported that they did not have Internet access in 2009 because
they could not aford it (Mexico, INEGI 2009).
In November 2010, ministers at the Third Ministerial Conference on the
Information Society of Latin America and the Caribbean adopted eLAC2015,
a regional roadmap for the information society highlighting six goals for
universal broadband access in the region (box 7.5). eLAC2015 considers
broadband pivotal, noting,
Box 7.5: eLAC2015 Universal Broadband Access Goals
• Goal 1. Increase direct investment in
broadband connectivity to make it available in all public establishments.
• Goal 2. Advance toward universal availability of affordably priced broadband
connectivity in homes, enterprises, and
public access centers to ensure that, by
2015, at least 50 percent of the Latin
American and Caribbean population has
access to multiple convergent interactive
and interoperable services.
• Goal 3. Coordinate efforts to bring down
the costs of international links by means
of a larger and more efficient regional and
subregional broadband infrastructure, the
inclusion of (at least) the necessary ducts
for fiber optic cables in regional infrastructure projects; the creation of Internet exchange points (IXPs); the promotion of innovation and local content
production; and the attraction of content
suppliers and distributors.
• Goal 4. Collaborate and coordinate with
all regional stakeholders including academia and business, the technical community, and organizations working in the
field, such as the Latin American and
Caribbean Internet Addresses Registry
and the Internet Society, to ensure that
Internet Protocol version 6 (IPv6) is
broadly deployed in the region by 2015;
and implement, as soon as possible,
national plans to make government public services portals in Latin America and
the Caribbean accessible over IPv6 and
to make public sector networks native
IPv6 capable.
• Goal 5. Harmonize indicators that provide
an overview of the situation of broadband
in the region, in terms of both penetration and uses of applications, in accordance with international standards.
• Goal 6. Promote ICT access and use by
persons with disabilities, with emphasis
on the development of applications that
take into account standards and criteria
on inclusion and accessibility; in this connection, promote compliance by all government web portals with the web
accessibility standards established by
the World Wide Web Consortium.
Source: eLAC2015.
Global Footprints: Stories from and for the Developing World
309
For the countries of Latin America and the Caribbean, the universalization
of broadband access in the twenty-first century is as important for growth
and equality as were electric power and road infrastructures in the twentieth century. Broadband is an essential service for the economic and social
development of the countries of the region, and it is indispensable for progress, equality, and democracy. That is why the strategic goal is for broadband
Internet access to be available to all of the citizens of Latin America and the
Caribbean (ECLAC 2010).
Chile was the first Latin American country to announce a national broadband strategy. The strategy identified ICT as a priority for economic development. Chile has also planned and implemented ICT policies from both
the supply and demand sides. The demand-side strategy has included programs for e-literacy, e-government, and ICT difusion. For example, almost
all taxes are filed electronically, and government e-procurement more than
doubled the volume of transactions processed between 2005 and 2008. The
government has also promoted broadband use by municipalities. By 2008,
almost all municipalities had Internet access, and 80 percent had websites.
In order to reach the objectives of a digital Chile, the government’s broadband goal is to double broadband connections and complete nationwide
coverage by 2012.
Brazil is one of the few countries in the region with a specific broadband plan, while St. Kitts and Nevis has the highest broadband penetration
in the region. The cases of these countries are highlighted at the end of this
chapter.
Middle East and North Africa
The Middle East and North Africa region is relatively well equipped with
wireline telephony for a developing region, and most wireline broadband is
primarily via ADSL. Nonetheless, prospects for wireline broadband are constrained. Few alternative wireline operators have deployed copper line
infrastructure, and local loop unbundling (LLU), for the most part, is not
available across the region. Further, the development of intermodal competition through CATV is inhibited by the popularity of satellite television,
widely available at no charge through the informal market. Most new
entrants to the traditional telephony market have been wireless based.
A report analyzing the main factors afecting broadband demand in many
of the countries in the region identified challenges hindering broadband
deployment and suggested recommendations to overcome them (ESCWA
2007). Challenges include high retail prices, poor regional and international
connectivity, limited wireline access infrastructure, lack of and restrictions
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on content, high cost of personal computers, and limited competition. The
report’s overarching conclusion was the need for convergence—through
bundled ofers and transition to IP-based networks—which would trigger
mass broadband adoption.
Many, but not all, of the countries have awarded spectrum for mobile
broadband services. Morocco, for example, was one of the first countries to
award 3G frequencies in the region. It did so through a beauty contest,
which lowered spectrum costs for operators. Some of the spectrum was
awarded to a new operator, shaking up the existing duopoly and triggering
intense competition in the mobile broadband market (box 7.3). As a result,
mobile broadband subscriptions in Morocco have surpassed wireline connections. The country has adopted the Maroc Numérique 2013 Strategy
with targets for providing broadband to all schools and one-third of households by 2013 (Morocco, Ministry of Industry, Commerce, and New Technologies n.d.). Morocco is highlighted in a case study at the end of this
chapter.
Most countries in the region share a common language, which facilitates
collaboration on developing digital Arab content to improve demand for
broadband.7 The Jordanian minister of information and communications
technology has outlined the importance of the content industry as a main
driver of Internet penetration, especially as it relates to local and Arabic
content. The digital content industry in Jordan received a boost in 2009,
when chipmaker Intel announced plans to invest in two digital content
companies: Jeeran and ShooFeeTV.8 The funding will be used to help both
companies to pursue regional growth as well as extend their product oferings. Jeeran is the largest user-generated content site in the Arab world,
reaching 1 million members and 7 million unique visitors per month.9
ShooFeeTV provides online information for more than 120 Arab satellite
channels, including listings, programming information, celebrity news, pictures, and video clips.10 Global social networking sites such as Facebook and
Twitter have also grown in popularity, as reflected in their extensive use
during the so-called Arab Spring in 2011. The number of Facebook users in
the Arab region grew 78 percent in 2010, while in Tunisia the proportion of
Facebook users increased 8 percent in the first two weeks of January 2011
following the beginning of demonstrations.11
South Asia
South Asia faces severe supply- and demand-side constraints in promoting
broadband access. In absolute terms, there is a significant base of wireline
telephone lines and cable television subscribers. India has the third largest
Global Footprints: Stories from and for the Developing World
311
wireline telephone network (measured by subscriptions) in the developing
world, and Pakistan has the fourteenth largest. In terms of CATV subscriptions, India ranks second and Pakistan ranks third among developing
nations. Nevertheless, wireline infrastructure is relatively limited compared
to other regions, and the number of telephone lines and CATV connections
for broadband services is relatively low. Some countries have been late to
award mobile broadband spectrum that would trigger intermodal broadband competition. On the demand side, the region is the second poorest
developing region after Sub-Saharan Africa, and levels of education are relatively low.
India was the first country in the region to adopt a broadband policy in
2004 (India, Ministry of Communications and Information Technology
2004). However, it has not achieved the goals set. The country published a
consultative document on a new broadband policy, and in December 2010
the Telecommunications Regulatory Authority of India (TRAI) issued
broadband recommendations.12 A key strategy is to develop an open-access
national fiber optic backbone network connecting all localities with more
than 500 inhabitants by 2013.
Pakistan published a broadband policy in 2004 (see Pakistan, Ministry of
Information Technology 2004). But broadband deployment has not lived up
to expectations—the number of broadband subscribers in 2007 was only
half of the level targeted for that year and well short of the half million targeted for 2010. In an efort to accelerate broadband take-up, a universal service fund (USF) is being used to subsidize the deployment of broadband
throughout the country.13
Other South Asian nations have also adopted or are developing broadband plans (ITU 2010a). However, programs that would address demandside afordability issues are limited (table 7.1).
Sri Lanka, which was one of the first countries in South Asia to award 3G
spectrum, has the second highest penetration, the lowest tarifs, and the
fastest mobile broadband speeds in the region. Sri Lanka’s broadband experience is highlighted in a case study at the end of this chapter.
Sub-Saharan Africa
The Sub-Saharan Africa region faces tremendous barriers in broadening
access to broadband. It starts from a very low base, with limited wireline
telephone networks and practically no CATV networks on the supply side,
coupled with demand-side bottlenecks including the lowest per capita
income and fewest years of schooling of all developing regions.
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Table 7.1 Broadband Plans and Policies in Selected South Asian Nations
Country
Is there a
national
broadband
plan?
Does universal service
include broadband?
Are there
other financing mechanisms for
broadband?
Are there social
tariffs for
broadband
subscribers?
Afghanistan
Under
development
No
Telecommunications
Development
Fund
No
Bangladesh
Yes
No, but foreseen in the
National Broadband Policy
No
No
Bhutan
Yes
No
No
No
Maldives
No
No
No
Yes, for education
Nepal
Under
development
Yes, in rural areas. Universal
service obligation was
imposed on the incumbent
wireline operator and
financed through the
Universal Service Fund and
interconnection charges
Tax exemption
for telecom
equipment
imported for
rural services
No
Source: ITU 2010a.
Over the past decade, a large amount of private investment, driven by
sector liberalization and competition and major advances in cellular technology, has brought mobile services within reach of the majority of Africa’s
population. The region’s focus, thus far, on mobile networks to address an
immediate service need has heightened the need for development of backbone networks capable of supporting broadband. This has created a major
bottleneck in the rollout of high-bandwidth services and in the upgrading of
cellular networks to provide value added services (Williams 2009). Overcoming this infrastructure hurdle is an important element in shaping the
structure and policy framework of the telecommunications services sector.
Without it, broadband will remain expensive and limited to businesses and
high-income customers. Backbone constraints will also limit access speeds,
afecting quality.
The backbone deficit has been acutely felt in international bandwidth.
Due to limited local content, most Internet traic is directed at countries
outside Sub-Saharan Africa. Unfortunately, a lack of international highspeed fiber optic capacity has meant that even where countries have been
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313
able to deploy local access broadband infrastructure, performance is afected
by slow international connectivity. Where connectivity exists, cable theft
continues to be a major problem for reliability. In addition, there are relatively few national IXPs in the region, forcing even intraregion traic to be
hauled outside the region for switching and then sent back.
Until 2009, South Atlantic 3/South Africa Far East (SAT3/SAFE) was the
only major regional submarine optic cable serving the continent, and it was
limited to a few countries on the west coast. Other countries had to use
more costly and slower satellite links. This has changed dramatically since
the arrival of several new undersea cable systems—The East African Marine
System (TEAMS), Southern and East African Cable System (SEACOM), and
Eastern Africa Submarine Cable System (EASSy)—including the first system to the region’s east coast (that is, TEAMS). Total capacity rose by a factor of 8.5 in 2009, and additional planned cables are expected to increase
undersea capacity to over 20 terabits per second (Tbit/s) by 2012.14
International connectivity is just part of the supply chain. Sub-Saharan African countries also need to ensure that bandwidth gets disbursed
throughout the country, and, in the case of the region’s landlocked countries, national backbones must be in place to connect to neighboring
countries. PPPs may be helpful to generate the necessary investment and
to ensure an efective and open-access operating arrangement. The
Kenyan government, for example, has supported open access to backbone infrastructure in various ways. It encouraged operators to participate in the TEAMS undersea cable and has also pursued public-private
partnerships for national backbone construction. It is now contemplating the same for the construction of broadband wireless networks using
Long-Term Evolution (LTE) technology. See the Kenya case study at the
end of this chapter.
At the local access level, mobile broadband holds great promise.
However, outside of a few countries, the region has yet to exploit this on
a significant scale. Around two dozen Sub-Saharan African countries
had commercially deployed 3G networks at the end of 2010, with around
9 million subscriptions.
Few African countries have elaborated a specific broadband policy. If
mentioned at all, broadband is touched upon in overall sector strategies.
One exception is South Africa, where the Broadband Policy for South Africa
was published in July 2010 (South Africa, Department of Communications
2010). Defining broadband as speeds of at least 256 kbit/s, the government
has identified two targets for 2019: all inhabitants to be within 2 kilometers
of a public broadband access point and a household broadband penetration
rate of 15 percent.
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Countries in Special Circumstances
In addition to regional groups, countries are also classified by particular
economic, geographic, and political situations. This section identifies
several groupings relevant to the international development community
and how the specific characteristics of that group can afect broadband
development.
Least Developed Countries
The United Nations created the least developed countries (LDCs) category
in 1971 to recognize the existence of a group of countries with severe poverty and weak economic, institutional, and human resources.15 This group
consists of 49 countries with a combined population of 815 million in 2008.
Of these, 15 are located in Africa, 12 in Asia, two in Latin America, and two
in Central and Eastern Europe. Around half are either small islands states or
landlocked.
LDCs face tremendous supply- and demand-side challenges in deploying
broadband networks. The existing level of wireline infrastructure is low, as
are demand-side indicators such as incomes and education levels. The
capacity for developing efective broadband strategies and policies is also
limited due to institutional weaknesses and insuicient human resources in
ministries and regulators.
New technologies such as broadband can help LDCs to overcome development challenges and move away from their dependence on primary commodities and low-skill manufacturing (UNCTAD 2010). There has been
some urgency to deploy broadband networks in order to mitigate LDCs falling further behind technologically and becoming even more marginalized
in the world economy (UNCTAD 2007). The development of international
and national backbones is a main priority that will likely require innovative
PPPs. Wireless broadband holds great promise given the significant increase
in mobile networks in the LDCs and the lower costs of deploying wireless
broadband compared to wireline infrastructures. LDCs will need to introduce greater competition and allocate spectrum for wireless broadband
services in order to encourage the deployment of these technologies.
Landlocked Developing Countries
Landlocked developing countries (LLDCs),16 predominantly located in
Sub-Saharan Africa and Asia, “face severe challenges to growth and
Global Footprints: Stories from and for the Developing World
315
development due to a wide range of factors, including a poor physical
infrastructure, weak institutional and productive capacities, small domestic markets, remoteness from world markets, and a high vulnerability to
external shocks.”17 There are 31 LLDCs, with a total population of
370 million in 2008.
Given their status as LLDCs, the main obstacle for these countries is distance from key ports, causing high transaction costs and reducing international competitiveness. These geographic conditions pose a supply-side
challenge for LLDCs in terms of global connectivity through high-speed
fiber networks.
“Virtual coastlines” can be created for LLDCs through the connection of
national backbones to countries directly linked to undersea cables. This
connectivity can then be brought to “virtual landing stations” in the LLDC
where all ISPs gain cost-based access to international bandwidth. Rwanda
has created a virtual landing station, where optic fiber cables from undersea
landing stations in Kenya and Tanzania (Rwanda’s “virtual coastline”) are
terminated (Kanamugire n.d.).
Access to high-speed international bandwidth will require regional
cooperation and PPPs to spur investment in national backbones and ensure
onward connectivity to neighboring countries with undersea fiber optic
cable. According to an ESCAP study on Central Asia, countries must cooperate to expedite and ensure efective regional connectivity (ESCAP 2009).
Broadband backbone infrastructure that transcends borders requires
interconnection. Along with management and maintenance, the need for
interconnection afects all the countries benefiting from the network.
Small Island Developing States
The United Nations has recognized the particular problems of small island
developing states (SIDSs) since 1994.18 According to the United Nations
Conference on Trade and Development (UNCTAD), SIDSs face “a greater
risk of marginalization from the global economy than many other developing countries” due to their small size, remoteness, and vulnerability to
external shocks.19 They are also susceptible to natural disasters such as tsunamis and damaging environmental changes such as sea-level rise. There
are 38 United Nations members classified as SIDS, with a population of
55 million in 2008. Over one-quarter of SIDSs are also LDCs.
Broadband connectivity can help to overcome these challenges in several
ways, such as economic diversification through establishment of IT-enabled
industries, creating a virtual closeness to the rest of the world, and real-time
weather modeling and monitoring. Additionally, tourism has a big economic
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impact in many SIDSs, and broadband plays a vital role for various travel
applications such as reservation systems and marketing.
The SIDSs are geographically diverse, with diferent broadband supply
and demand challenges. On the demand side, many SIDSs have relatively
small populations, which may deter investment. However, the small geographic areas of SIDSs often make it easier and cheaper to deploy networks
quickly with a high degree of coverage, and a growing number of SIDSs are
achieving universal mobile service.20 On the supply side, most of the
Caribbean SIDSs are located in a condensed area, crisscrossed by a number
of undersea fiber optic cable networks. Pacific SIDSs tend to be more spread
out. Since there are far fewer options for access to undersea fiber optic
cables, most Pacific SIDSs are dependent on more expensive satellite solutions. Some Pacific SIDSs, such as Fiji, are served by undersea cables and
therefore are in a position to become a potential fiber hub to neighbors
(World Bank 2009).
Most of the Caribbean SIDSs introduced competition in telecommunications networks several years ago, whereas the Pacific countries have done so
only more recently. Mobile broadband has yet to have a significant impact in
most SIDSs due to a lack of spectrum allocation and uncertain demand.
The Eastern Caribbean Telecommunications Authority (ECTEL) was
established as a regional regulator for countries in that subregion. ECTEL
overcomes human resource limitations of each country staing its own fullfledged regulatory institution and harmonizes subregional policies. ECTEL
recently moved to make high-speed Internet more accessible by designating
the 700 MHz band for broadband wireless services (EC-TEL 2009). St. Kitts
and Nevis, a Caribbean SIDS, is profiled in a broadband country case study
at the end of this chapter.
Postconflict Countries
Postconflict countries refer to nations where war and civil strife have led to
the destruction of institutions and economic facilities. There is no oicial
definition of a postconflict economy, but such economies are often locations
where civil conflicts have necessitated the intervention of peacekeeping
missions.21 ICTs can play a beneficial role in helping to reconstruct these
countries by attracting foreign investment, generating employment, enhancing education prospects, and creating linkages to the global economy.22
Given the often poor or destroyed telecommunications infrastructure, postconflict countries can leapfrog to state-of-the-art, next-generation networks. However, this will require a liberalized telecommunications regime
that encourages convergence and investment in IP networks.
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317
In Afghanistan, for example, years of civil strife destroyed much of the
economy, shutting down most government institutions, including schools. A
project sponsored by the North Atlantic Treaty Organization has installed
broadband access in universities using satellite technology.23 This has overcome shortages of learning materials and teachers since professors and students can download teaching information and use online learning tools. In
East Timor, the Australian government has been assisting with the development of the new country’s media sector by providing journalists with the
ability to upload and research news through the establishment of broadband centers.24
One notable development in some postconflict countries is the stunning
result of private sector investment in ICTs. Private investors have been willing to take risks in highly unstable environments such as Afghanistan and
Iraq. Starting from a very low base, these countries now have growing levels
of mobile access and are expanding into wireless broadband solutions. The
case of Sri Lanka, a country emerging from a decades-long civil conflict, is
highlighted in a broadband study at the end of this chapter.
Broadband Experiences in Selected Countries
This section summarizes the results of various countries’ broadband experiences, as commissioned for the Broadband Strategies Toolkit.25 The
countries studied cover a range of regions and development status, as
shown in figure 7.6. Additionally, examples of eforts to address supplyside and demand-side issues in each of the studied countries are outlined
in table 7.2.
Brazil
Brazil is the world’s sixth most populous nation, so unsurprisingly, it is
among the top countries ranked by total number of broadband subscriptions
(Jensen 2011). At the end of 2010, Brazil was in ninth position, with 15 million fixed broadband subscribers as well as 20 million mobile broadband
subscribers. Despite the size of the Brazilian broadband network, penetration is relatively low given its large population. Two key constraints include
a shortage of fixed broadband infrastructure and wide income disparities in
the country. The level of wireline infrastructure is relatively low for fixed
broadband services. Competition in the fixed telephone line sector is low,
and penetration has been falling due to mobile substitution. Fixed broadband is also available through cable modem, but growth has been limited due
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Figure 7.6
Broadband Country Summaries
IBRD 39043
JANUARY 2012
St. Kitts and Nevis
Caribbean
Upper-middle-income
Population: 55,000
Broadband (per 100 people):
Wireline: 23.1
Wireless: 0.0
Brazil
Latin America
Upper-middle-income
Population: 193 million
Broadband (per 100 people):
Wireline: 8.0
Wireless: 10.7
Turkey
Europe and Central Asia
Upper-middle-income
Population: 71 million
Broadband (per 100 people):
Wireline: 8.0
Wireless: 26.3
Morocco
North Africa
Lower-middle-income
Population: 32 million
Broadband (per 100 people):
Wireline: 1.6
Wireless: 4.3
Vietnam
East Asia
Lower-middle-income
Population: 88 million
Broadband (per 100 people):
Wireline: 4.1
Wireless: 9.6
Kenya
Sub-Saharan Africa
Low income
Population: 37 million
Broadband (per 100 people):
Wireline: 0.2
Wireless: 2.1
Sri Lanka
South Asia
Lower-middle-income
Population: 20 million
Broadband (per 100 people):
Wireline: 1.0
Wireless: 4.9
This map was produced by the Map Design Unit of The World Bank.
The boundaries, colors, denominations and any other information
shown on this map do not imply, on the part of The World Bank
Group, any judgment on the legal status of any territory, or any
endorsement or acceptance of such boundaries.
Source: World Bank adapted from national regulatory authorities and statistical offices.
Note: All figures are for 2010. Wireless broadband penetration refers to subscriptions and not active
Internet use.
to lack of scale and growing preference for satellite-delivered multichannel
television. With the relatively high penetration of mobile networks—subscription penetration exceeded 100 percent by December 2010—3G services
are expanding rapidly to fill the demand for broadband. As a result, wireless
access is likely to be the main growth area for broadband in Brazil now that
constraints on the availability of radio spectrum have been addressed and
the 450 MHz band has been released for rural communications.
The other major constraint is the big variation in income levels across the
country. Broadband access is uneven—at one end of the spectrum, the level
of access is high in industrialized urban areas, mostly in the southeast of the
country. Here, the nation has recorded some of the world’s highest levels of
Internet use, and, in particular, Brazilians have been early users of social
Global Footprints: Stories from and for the Developing World
319
320
Table 7.2 Examples of Policies and Programs for Broadband Development, by Country, Region, and Economic Level
Economic level, region,
and country
Demand
Supply: infrastructure
Services
Applications
Users
Kenyan government
encouraged local
operators to participate in
undersea TEAMS cable
through PPP.
VoIP has been legal since
2006 with liberal
licensing for ISPs.
Judiciary Telepresence
project connects judges
and courts.
The Kenya ICT Board
establishes and funds
Pasha Digital Villages
with broadband access
for communities.
Low-income economy
Sub-Saharan Africa:
Kenya
Lower-middle-income economy
East Asia and the Pacific:
Vietnam
Several fixed and mobile
broadband operators
have been licensed.
A broadband network
connecting over 1,000
educational institutions
has been installed in Ho
Chi Minh City.
Several plans and
programs exist for
promoting software and
digital content industries.
Procurement of digital
information devices for
households with financial
difficulties is supported
through the USF and
spectrum auction
proceeds.
Middle East and North
Africa: Morocco
License was granted to
new operator Wana,
which is now the second
largest broadband
operator.
The Genie Program is
installing broadband
multimedia computer
labs in all schools,
affecting 6 million
students.
The Idarati (E-Government) Program led to
97% of administrative
units having a website
with some 200 services
online.
Laptops are subsidized
for engineering students
and teachers.
South Asia: Sri Lanka
Sri Lanka was among the
first in the region to
award mobile broadband
spectrum and has the
lowest prices and highest
speeds.
The regulator compiles
broadband quality of
service statistics showing
difference between
advertised and actual
speeds.
The E–Sri Lanka Program
has resulted in 112 online
services and some 4
million people conducting
transactions with
government online.
The Easy Seva project
used PPPs to install more
than 50 public Internet
facilities in rural areas
connected with mobile
broadband.
Upper-middle-income economy
Europe and Central Asia:
Turkey
Incumbent is required to
provide wholesale
broadband access to its
fixed telephone network.
Broadcast firms are
allowed to provide
broadband, and incumbent is allowed to provide
IPTV.
Share of government
services provided online
to total public services
reached 66% in 2010.
Government has provided
1,850 public Internet
access points to provide
ICT access and ICT
competency to citizens.
Latin America and the
Caribbean: St. Kitts and
Nevis
Licensed cable TV and
fixed wireless operators
are to provide broadband
services in competition
with incumbent.
VoIP services such as
Vonage, MagicJack, and
Skype are used extensively by residential
consumers.
Government encourages
local portals developed by
entrepreneurs; SKNVibes
gets 2 million hits a
month.
Students in the final
grade of high school are
provided with laptops;
operators bid on providing Internet access to
these students on a
pay-as-you-go basis.
Source: Adapted from World Bank, “Broadband Strategies Toolkit, Module 3: Country Case Studies of Broadband in the Developing World,” http://www.broadbandtoolkit.org.
321
networking services. At the other end of the spectrum, there are vast hinterlands of unconnected rural areas, most particularly in the less wealthy
northern and western parts of the country. This pattern of uneven access
also repeats itself at the local level. Most cities have wealthy areas with high
levels of household broadband access, while close by in the favelas (informal
townships), there is almost no fixed broadband and people must depend on
cybercafés or relatively slow and expensive 3G connections.
The federal government has had little success in addressing the digital
divide using the Universal Service Fund, although state and municipal initiatives have improved public access. The private sector has invested
heavily in telecommunications, but Brazil’s vast size and low population
density in the rural areas make it diicult to achieve pervasive nationwide
broadband.
In a renewed efort to address the continued disparities in broadband
access, the government began a major new infrastructure development initiative in mid-2010, setting ambitious targets to triple broadband uptake by
2014. Called the National Broadband Program, it aims to provide broadband access for low-income households and in areas where private operators have little commercial interest. The US$6.1 billion project aims to
cover 4,000 cities and towns—40 million homes—with broadband at a
speed equal to or greater than 512 kbit/s for about US$20 per month. The
initial focus has been on addressing the deficiencies in the national backbone and ensuring that suicient fiber infrastructure is in place. The old
state-owned operator, Telebras, has been revitalized as manager to integrate existing resources, including utilizing the fiber networks of oil and
electricity utilities.
With the national broadband plan and steadily rising economic prosperity for the less wealthy, as well as infrastructure projects associated with the
soccer World Cup in 2014 and the Olympics in 2016, the prospects for wider
adoption of broadband in Brazil have improved.
Kenya
Kenya has a natural geographic advantage, being strategically located on the
east coast of Africa and well positioned vis-à-vis the Arab Gulf states
(Msimang 2011). Its government-led “build it and they will come” approach
to broadband development has leveraged the country’s geographic location
and played a major role in dramatically increasing fiber optic backbone
capacity. Many of Kenya’s milestones have been realized in less than five
years. Connections were made to three fiber optic submarine cables by
the end of 2010, changing the face of the broadband market. The country
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has gone from relying on satellite for international capacity at the beginning
of 2009 to having access to capacity of almost 4 Tbit/s over fiber toward the
end of 2010.
Although the landing of the cables is merely a first step, it has already
resulted in an 80 percent decrease in wholesale bandwidth costs (although
reliability is sometimes a problem). Lower prices and greater availability are
expected to increase access to the Internet as well as to promote the continued spread of sophisticated mobile applications and services and consequently to improve opportunities for the creation of and access to
information and knowledge. Afordable broadband is expected to increase
Kenya’s competitiveness, particularly in the business process outsourcing
industry, and to encourage entrepreneurship and innovation.
Kenya is also emerging as a mobile broadband hub. This builds on its
success with the M-PESA mobile money platform. Mobile broadband
was launched in 2008 and far outnumbers wireline subscriptions. LTE is
being tested, and construction of a wholesale backbone network is also
being considered. A regional mobile application laboratory is being established in Nairobi with the assistance of the World Bank, with the aim of
fostering the development of mobile applications and locally relevant
content.
With an estimated wireline and mobile broadband penetration rate of
two subscriptions per 100 people in 2010, Kenya still has significant progress to make with respect to broadband uptake. Stimulating demand and
usage by citizens and the public and private sectors remains a challenge.
Kenya, largely through the government, has taken an innovative and proactive approach to putting the user at the center and addressing the other
elements of the broadband ecosystem, such as education, literacy, applications, and content. This has been done through progressive regulation,
the promotion of polices relating to ICT in education, the subsidization of
relevant content and application projects, and the facilitation of creative
public-private partnerships.
Much of Kenya’s success comes from four important factors: (a) a clear
national approach of how broadband fits into its Vision 2030 development
goals; (b) strong leadership and direction; (c) a credible regulatory, policy,
and institutional framework; and (d) approaches that leverage the strength
of the public and private sectors through PPPs. Elements of these traits
permeate all aspects of the broadband ecosystem. Although there have
been a few setbacks in the pace of implementation and overlaps in the
policy and institutional framework, the Kenyan broadband experience is
inspiring, particularly its potential to transform economic and social
activity.
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323
Morocco
Morocco is a lower-middle-income economy in the northwest of Africa
(Constant 2011). Its 2009 economic growth rate of 4.2 percent surpassed the
Middle East and North Africa average of 2.3 percent, yet the country remains
vulnerable to economic shocks, high illiteracy, and high unemployment as
well as increasing pressure on natural resources. Despite these challenges,
the country continues to make gradual progress in human development and
economic indicators through investment in diversification and sound macroeconomic policies.
For example, Morocco invests more on ICT than any other country in the
region: in 2008, 12.5 percent of its gross domestic product was spent on
ICTs compared to the regional average of 5.8 percent. As a result, the telecommunications market has advanced rapidly, with the spread of mobile
phones emerging as a bright spot in the country’s ICT sector. Penetration
rose 20 percentage points in 2010 to reach over one mobile subscription per
person.
Morocco was one of the first countries in the region to award 3G frequencies, which took place in 2006. Unlike most other countries that awarded 3G
frequencies through an auction, Morocco chose a beauty contest, resulting
in lower costs for operators. Some of the spectrum was awarded to a new
operator, shaking up the existing duopoly and triggering intense competition in the mobile broadband market. As a result, mobile broadband, which
launched in 2007, surpassed fixed broadband connections by 2009 and
made up almost three-quarters of all broadband connections in 2010.
Exchanging videos and music, social networking, and Internet telephony
are the main uses driving people to broadband, with a combined increase of
25 percentage points in 2010. Considering that the majority of Internet
access is over mobile broadband, growing usage is beginning to impose constraints on networks, afecting quality. Further, only about one-quarter of
households in Morocco have a broadband connection. Consequently, a significant number of Internet surfers use cybercafés where pay-as-you-go
pricing is cheaper than a home subscription.
Broadband availability in large enterprises is widespread, and most companies have a website. However, the use of online transactions is limited,
with only around one-fifth of the population buying or selling goods and
services over the Internet. Broadband use by micro, small, and medium
enterprises with fewer than 10 employees is much more limited.
The country has adopted the Maroc Numérique 2013 (Digital Morocco)
Strategy to enhance e-government services and overcome current limitations. Targets include creating employment opportunities within the sector
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and providing broadband to all schools and one-third of households by 2013.
In addition, some 400 community access centers are to be created. The
development of local content is a key strategy, including increasing the
availability of e-government to some 90 online applications. In an efort to
get more small enterprises to adopt broadband, free training will be provided, including sensitizing businesses about the benefits of high-speed
Internet for increasing productivity and competitiveness.
St. Kitts and Nevis
The island nation’s approach to developing broadband is encouraging. At
the end of 2010, wireline broadband subscription rates stood at almost 30
percent, the highest rate among all countries in the Latin American and
Caribbean region. This achievement in broadband can be attributed in part
to the small physical size of St. Kitts and Nevis, which has enabled faster
rollout of the physical infrastructure, facilitated marketing, and promoted
maximum impact for government-led ICT policy initiatives (Anius 2011).
Among the Caribbean islands, however, “smallness” is certainly not unique,
and several other factors have contributed to this achievement.
The phrase “strength in depth” is borrowed from the world of soccer, the
most popular sport on the island. The term is used to underscore the point
that the strength of the island’s achievement in the broadband sector lies in
its commitment to nurturing the foundational components of the broadband ecosystem. Promoting basic education and digital literacy, building
technology awareness, facilitating access to basic technologies, and encouraging a competitive telecommunications environment are but a few examples of where the country has developed its core strengths.
The St. Kitts and Nevis broadband ecosystem includes the following key
strategies:
• Competitive environment through eicient legislation and regulation
• Regional coordination, particularly for design of policy frameworks
• Government as facilitator by providing strong leadership in the
ICT sector
• Government as leader by promoting service demand through content
provision
• Universal service for broadening access to technologies
• Public-private partnerships to catalyze and strengthen broadband
initiatives.
Global Footprints: Stories from and for the Developing World
325
The deployment of a second submarine fiber network in 2006 has
introduced competition in international backbone capacity that should
further enhance the broadband sector. However, as in any ecosystem,
sustainability and growth can be threatened by internal weaknesses.
Some of these weaknesses have served as lessons learned and were
adjusted at the national level; others continue to pose a challenge to the
islands. Costly services, an unstable power supply, quality of service
issues, lack of high-speed mobile networks, and deficiencies in the availability of local content and applications that create network value for
citizens are some of the challenges for future growth of the broadband
sector in St. Kitts and Nevis.
In general, the country has been successful in promoting uptake of broadband Internet by taking measured approaches, which may be of relevance to
discussions on broadband strategies pertaining to other small island developing states.
Sri Lanka
Sri Lanka, an island nation located in the Indian Ocean just south of India,
has recently experienced rapid growth in the availability and use of mobile
broadband services (Galpaya 2011). A key factor is mobile broadband spectrum availability. 3G frequencies were made available as far back as 2003 for
testing, and commercial 3G services were launched in 2005. Early access to
spectrum enabled operators to gain experience and constantly innovate to
stay competitive. As a result, Sri Lanka has the fastest mobile broadband
technologies in South Asia.
The government’s e-development agenda has also triggered broadband
uptake. E–Sri Lanka is a cross-sector ICT development program financed in
part by the World Bank. A series of comprehensive supply- and demandside projects has helped to create awareness about broadband in the country. For example, one project set up a network of nearly 500 rural telecenters,
while a least-cost subsidy scheme has been planned to build and operate
a fiber backbone in rural areas as well as to establish a comprehensive
e-government program. Additionally, operators have been motivated to
invest in network infrastructure in light of projected demand.
Beginning in the early 1980s, Sri Lanka was plagued by a violent ethnic
conflict, which forced a large portion of the minority Tamil population to
leave Sri Lanka and seek refuge in other countries. This large migrant population generated high demand for Internet services in order to communicate
with relatives remaining in Sri Lanka. Demand for Internet telephony was
unusually high in conflict zones, with Internet cafés catering to the demand.
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Innovative business models have contributed to widening access to services. The development of wireless broadband rides on the wave of
extremely high mobile voice growth. Intense competition forced operators to innovate in such a way as to be able to serve even the poorest consumers profitably. Network costs were reduced drastically by sharing
passive and active infrastructure and outsourcing key parts of the operation. Distribution costs were minimized through e-reloads, eliminating
the need to print and distribute top-up cards for prepaid users. Small topup values attracted consumers with low and variable incomes to the market. This “budget telecom model” enabled operators to earn positive
margins, even though average revenue per user was low. This same model
is now being applied to mobile broadband in Sri Lanka. By enabling prepaid, very low value recharge, and promotional discounts for students, the
youth segment is being brought into the mobile broadband market. These
early adopters are, in turn, spreading interest about the benefits of highspeed wireless networks.
The downside of the budget telecom model is that quality is sometimes
sacrificed for price. Compared with the developed world, Sri Lankan consumers get less broadband value for the money they spend. Part of the reason is that advertised broadband speeds are theoretically possible, but rarely
delivered in reality. Another bottleneck is international connectivity. A significant portion of Internet traic is routed outside of the country, and
wholesale international connectivity prices are relatively high, making
Internet capacity a sought-after resource.
Turkey
Throughout history, Turkey has been a prominent center of commerce
because of its land connections to the continents of Europe, Asia, and Africa
and the sea surrounding it on three sides (Cagatay 2011). An Organisation
for Economic Co-operation (OECD) member, it has long awaited European
Union (EU) membership. As an upper-middle-income economy, Turkey
sufers from comparison with these mainly high-income groupings. Its
fixed broadband penetration stood at 9.4 subscriptions per 100 inhabitants
in June 2010 compared to the OECD average of 24.2, and 34 percent of
Turkish homes had a broadband connection compared to the EU average of
61 percent in 2010.
These statistics disguise the fact that, compared to other countries in its
income group, Turkey is doing relatively well. It has a higher broadband
penetration than recent EU members and the fourth largest fixed broadband network among upper-middle-income economies.
Global Footprints: Stories from and for the Developing World
327
E-government initiatives have been a major driving force for development of the broadband ecosystem. This has triggered demand by enterprises in the ICT sector and motivated citizens to increase Internet
usage. Ensuring a shared vision among political leaders and technocrats
has also been an important factor in pushing e-government programs.
Political leaders saw e-government as a central instrument that would
support public reforms and larger changes in the political system. A central organizational structure was formulated to develop strategies and
put public money into the pipeline for a set of strategically important
projects with high value and high transaction costs.
The high-tempo growth of Turkish economy in the last decade is another
supportive factor. Various market-oriented reforms have been complemented with a proactive foreign policy resulting in large sums of overseas
capital flowing into the country. Communications, software, and hardware
segments of ICT industries have expanded rapidly. This has included significant investment in upgrading mobile networks to broadband. Broadband mobile networks were only launched in 2009, yet by the end of 2010
around a quarter of the population was already capable of accessing highspeed wireless services.
The Turkish population has largely embraced social networking. The
country is the fourth largest Facebook market in the world. In addition,
local content is growing, and Turkish websites are getting more popular and
increasingly diversified.
Nevertheless, the country continues to face economic and social barriers
to its ability to absorb broadband technologies efectively on a large scale
and better utilize them for leveraging competitiveness. Fixed broadband
competition is limited and dominated by DSL technology. ICT skill gaps
among SMEs and the less educated need to be addressed with the participation of private initiatives. The lack of a suitable national accounting framework for more detailed analysis hinders international benchmarking in
ICTs and innovation.
If Turkey can overcome these barriers, the results could be considerable.
According to its Digital Vision roadmap, broadband could boost economic
growth by 0.8 to 1.7 percentage points per year. The economic momentum
enabled by an enhanced broadband ecosystem would create between
180,000 and 380,000 new jobs each year.
Vietnam
With some 86 million inhabitants, Vietnam is the thirteenth most populated
country in the world. Its land area is larger than Italy and almost the size of
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Broadband Strategies Handbook
Germany (Tuan 2011). Wireline broadband has grown over 1,000 percent
since 2005, and, with 3.6 million subscriptions in 2010, it had the ninth largest network among developing counties. Its wireline broadband penetration
is the sixth highest among lower-middle-income economies, with 4.4 subscriptions per 100 people.
Solid economic growth has coincided with increased broadband usage.
This has been accompanied by opening of the economy, which has attracted
investment from foreign capital. Liberalization of the telecommunications
sector has led to growing competition, with 11 enterprises providing infrastructure. Service providers have developed modern IP-based networks
with extensive fiber optic backbones. Incomes have risen so that more people can aford broadband. This, in turn, has created a virtuous circle, with
explosive demand creating a larger market, resulting in economies of scale
and lower prices. Another factor driving fixed broadband growth is that
Vietnam was a latecomer to mobile broadband. Major mobile operators did
not launch their networks until 2009, with around 15 percent of mobile subscribers having 3G capability toward the end of 2010.
Despite these successes, Vietnam faces challenges in broadening broadband access, particularly in rural areas, where some 70 percent of the population resides. Young people in urban areas “live” with high-speed Internet
access; however, less than 1 percent of rural households had any type of
Internet access in 2008.
Most businesses are focused on using the Internet for basic needs such
as sending and receiving e-mail and finding information, while more
advanced applications such as e-commerce are not used as widely.
Despite rising Internet access in households, many users have yet to
exploit broadband applications fully. Survey data indicate that a computer’s Internet connection in Vietnam is used to search for personal information and serve children’s learning. The lack of relevant content and
fragmented information are problems; a public information network with
a unified portal, equipped with an automatic translation engine and rich
multimedia content covering health, education, culture, and agriculture,
is lacking.
The cost of fiber optic access is only economical in new urban areas and
for large enterprises, so DSL remains the fixed broadband choice of households. But copper lines provide less quality than fiber, and it is diicult to
upgrade the transmission capacity. At the same time, telecom enterprises
have recently been focusing on developing mobile broadband to the detriment of the fixed network.
The large number of operators has led to overlap in investment in the
access network. Interconnection is diicult because operators use a
Global Footprints: Stories from and for the Developing World
329
variety of technologies, afecting standardization of the national telecommunications infrastructure. Intense competition has resulted in price
wars that threaten long-term sustainability. Service providers are looking
to reduce duplication by cooperating on shared infrastructure, but so far
no specific measures have been implemented.
While Vietnam has had tremendous achievements in broadband, there
are challenges arising from its rapid growth: (a) development of width (for
example, the number of subscribers) needs to be coupled with development
of depth (for example, service quality); (b) diferences in the level of
broadband between regions can contribute to widening gaps; and (c) the
rapid development of broadband can cause policy problems afecting social
life, security, and politics.
Notes
1. This chapter classifies developing economies into geographic and economic
groupings according to World Bank regional and income classifications. See
World Bank, “How We Classify Countries,” http://data.worldbank.org/about/
country-classifications.
2. United Nations, “Millennium Development Goals,” http://www.un.org/
millenniumgoals/.
3. MDG Monitor, “Tracking the MDGs,” http://www.mdgmonitor.org/browse_
goal.cfm.
4. ITU, “WSIS,” http://www.itu.int/wsis/index.html.
5. FTTH Council, “Global FTTH Councils’ Latest Country Ranking Shows Further
Momentum on All-Fiber Deployments,” Press Release, February 10, 2011, http://
www.ftthcouncil.org/en/newsroom/2011/02/10/global-ftth-councils-latestcountry-ranking-shows-further-momentum-on-all-fiber-.
6. “Triple Network Project Launched,” People’s Daily Online, July 2, 2010, http://
english.peopledaily.com.cn/90001/90778/90860/7050112.html.
7. See ESCWA, “Final Meeting of the Project on ‘Promotion of the Digital Arabic
Content Industry through Incubation,’” http://www.escwa.un.org/divisions/
projects/dac/index.asp.
8. Intel, “Intel Capital to Invest in Two Digital Content Companies in Jordan,”
Press Release, May 17, 2009, http://www.intel.com/capital/news/releases/
090519.htm.
9. http://www.jeeran.com/.
10. http://www.shoofeetv.com.
11. Dubai School of Government, “Arab Social Media Report,” January 2011, http://
www.dsg.ae/NEWSANDEVENTS/UpcomingEvents/ASMRHome.aspx.
12. TRAI (2010); TRAI, “TRAI Issues Recommendations on ‘National Broadband
Plan,’” Press Release, December 8, 2010, http://www.trai.gov.in.
330
Broadband Strategies Handbook
13. See Pakistan Universal Service Fund, “Broadband Programme,” http://www
.usf.org.pk/Broadband-Programme.aspx.14. See “African Undersea Cables,”
http://manypossibilities.net/african-undersea-cables/.
14. See African Undersea Cables, http://manypossibilities.net/african-underseacables/.
15. LDCs are identified through three criteria: income per capita, human capital,
and economic vulnerability. For the methodology, see UN-OHRLLS, “Criteria
for Identification of LDCs,” http://www.unohrlls.org/en/ldc/related/59/. For
the list of LDCs, see UN-OHRLLS, “Country Profiles,” http://www.unohrlls
.org/en/ldc/related/62/.
16. For a list of LLDCs, see UN-OHRLLS, “Country Profiles,” http://www.unohrlls
.org/en/lldc/39/.
17. See UNCTAD, “UN Recognition of the Problems of Land-Locked Developing
Countries,” http://www.unctad.org/Templates/Page.
asp?intItemID=3619&lang=1.
18. For a list of SIDSs, see UN-OHRLLS, “Country Profiles,” http://www.unohrlls
.org/en/sids/44/.
19. See UNCTAD, “UN Recognition of the Problems of Small Island Developing
States,” http://www.unctad.org/Templates/Page.asp?intItemID=3620&lang=1.
20. See ictDATA, “Samoa Mobilized,” September 24, 2010, http://www.ictdata
.org/2010/09/samoa-mobilized.html.
21. There is no oicial definition of a postconflict economy. They are often
locations where civil conflicts have necessitated the intervention of peacekeeping troops. For a list of locations where United Nations peacekeeping troops are
stationed, see http://www.un.org/en/peacekeeping/.
22. The World Bank–financed E–Sri Lanka Development Project argues, “ICT can
promote peace eforts by providing connectivity and electronic delivery of
much needed information and public services, bridging space, time, and
promoting understanding between the North and East and the rest of the
country.” See World Bank, “Sri Lanka: E-Lanka Development Project,”
December 1, 2003, http://go.worldbank.org/567ZZUWMD0.
23. See NATO Chronicles, “Broadband for Afghanistan,” Episode 2, March 2010,
http://www.natochronicles.org/#/en/episode2.
24. See AusAID, “Governance Activities: East Timor,” http://www.ausaid.gov.au/
country/east-timor/governance.cfm.
25. http://www.broadbandtoolkit.org.
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APPENDIX A
Weblinks to National
Broadband Plans
Country
Title of the plan
Weblink
Brazil
Programa Nacional de Banda Larga
(National Broadband Program or National
Broadband Plan)
http://www4.planalto.gov.br/brasilco
nectado/forum-brasil-conectado/
documentos/3o-fbc/documento-basedo-programa-nacional-de-banda-larga
Colombia
Plan Vive Digital Colombia (Colombia
Digital Living Plan)
http://www.mintic.gov.co/vivedigital/
pdfs/material.pdf
Finland
Making Broadband Available to Everyone:
The National Plan of Action to Improve the
Infrastructure of the Information Society
http://www.lvm.fi/c/document_library/
get_file?folderId=57092&name=
DLFE-4311.pdf
France
France Numérique 2012: Plan de Développement de l’Économie
Numérique (Digital France 2012)
http://lesrapports.ladocumentationfran
caise.fr/BRP/084000664/0000.pdf
Japan
E-Japan Strategy in 2001 (updated at
intervals)
http://www.kantei.go.jp/foreign/policy/
it/index_e.html
Oman
Digital Oman Strategy
http://www.ita.gov.om/ITAPortal/ITA/
strategy.aspx?NID=646&PID=
2285&LID=113
Singapore
Intelligent Nation 2015 (iN2015)
http://www.ida.gov.sg/images/content/
About%20us/About_Us_level1/_iN2015/
pdf/realisingthevisionin2015.pdf
(continued next page)
335
Country
Title of the plan
Weblink
South Africa
Broadband Policy for South Africa
http://thornton.co.za/resources/
gg33377_nn617_pg3-24.pdf
United States
National Broadband Plan: Connecting
America
http://www.broadband.gov/
download-plan/
Source: World Bank.
336
Broadband Strategies Handbook
APPENDIX B
Policies and Programs for
Promoting Broadband in
Developing Countries
337
338
Table B.1
Infrastructure Policies and Programs
Sector and
program
Supply and
demand
impacts
Description
Example
The first step of broadband policy implementation
is to foster competition with minimal market
entry barriers. Lowering or removing entry
barriers in broadband markets drives competition.
A key consideration is technological neutrality. The
rapid development and diffusion of broadband is
largely due to competition between technologies
such as digital subscriber line (DSL), cable
modem, fiber optics, and wireless. To enjoy the
full benefits of such competition, governments
should not influence the technological choices of
providers without good reason.
The Thai government considers that international
connectivity could be a bottleneck and for that
reason issues automatic licenses for international
gateway services (Thailand, National Telecommunications Commission 2010).
Supply: all
levels
Coordination among countries can affect all levels
of the broadband supply chain by lowering costs
through common technical standards and
facilitating the development of international,
regional, and national backbones. A high level of
global and regional cooperation already exists in
areas such as equipment standards and frequency coordination. Regional harmonization in
broadband regulatory approaches can help to
reduce uncertainty and attract investment.
The Eastern Caribbean Telecommunications
Authority (ECTEL) is a regulatory body for its five
member states. It coordinates policy in several
areas, including aspects related to broadband such
as frequencies for broadband wireless access,
wholesale access to networks, and quality of
service.a
Supply: all
levels
High license fees, taxes, and burdensome
administrative processes can discourage
investment in the broadband sector, especially
when the market is nascent and the returns are
uncertain. Measures such as providing investors
with tax benefits and low-interest, long-term
loans can promote investment in network
development. Likewise, allowing operators to use
broadband spectrum for pilots prior to formal
allocation provides an opportunity to test the
feasibility of different frequencies and gain
valuable experience.
In order to encourage broadband connectivity,
India removed licensing requirements for use of
Wi-Fi and WiMAX in the 2.4–2.4835 GHz band.b
Promote
investment
and market
entry
Supply: all
levels
Promote
international
coordination
Reduce
administrative
burdens and
provide
incentives for
research and
development,
pilots, and
network
rollout
Demand:
access,
affordability
Demand:
access,
affordability
Allocate and
assign
spectrum
Supply:
domestic
backbone,
local access
Demand:
access
Facilitate
infrastructure
sharing
Supply:
international
connectivity,
domestic
backbone,
local access
Demand:
access,
affordability
Allocating the appropriate spectrum can significantly alter the business case for wireless
broadband. Governments should manage their
radio spectrum appropriately to reduce entry
barriers, promote competition, and enable the
introduction of innovative technologies. Given the
rapid development of wireless broadband
technologies, governments should allow providers to obtain new frequencies by expanding
available frequency bands. They should implement management policies that encourage
efficient use and shift spectrum from low-value
uses to broadband. Spectrum managers should
also keep in mind the effect of their spectrum
allocations on business economics: higher bands
make mobile communication more difficult and
more expensive. Spectrum should be assigned on
a technology- and service-neutral basis. This
approach is critical to enabling all the different
types of applications of broadband services:
voice, video, and data can all be provided by
wireless broadband technologies. Finally,
operators should be allowed to use their existing
spectrum for mobile broadband services.
Widespread policies throughout Latin America
allow the existing 850/900 megahertz spectrum,
originally allocated for voice, to be used for
high-speed mobile data services. These frequencies also support wider coverage with fewer base
stations so that investment costs are lower and
more people can gain access (Roetter 2009).
Civil works (for example, trenches, ducts, and
cables) are the biggest sunk cost in broadband
network construction in both the access and the
backbone segments. The costs of backbone
network construction can be cut by establishing
legal grounds for open access to the passive
infrastructure (conduits, ducts, and poles) of other
services (roads, railways, and power supply
facilities). Similarly, when contractors construct
In Thailand, operators signed a Memorandum of
Understanding on infrastructure and network
sharing in November 2010 in support of the
country’s National Broadband Policy (Aphiphunya
2010). According to the government, the agreement will lead to more efficient use of networks.
(continued next page)
339
340
Table B.1 (continued)
Sector and
program
Supply and
demand
impacts
Description
Example
other types of new infrastructure, the government can require them to build passive infrastructure that communications service providers can
access on a nondiscriminatory basis. Another
option is to require the installation of basic
infrastructure, such as ducts, when homes and
offices are constructed or renovated. Finally,
governments can permit or facilitate joint
construction of backbone and subscriber
networks among providers.
Establish
Internet
exchanges
Supply:
international
connectivity
Demand:
affordability
Public-private
partnerships
(PPPs) for
deployment
of openaccess
broadband
networks
Supply:
international
connectivity,
domestic
backbone
There are many advantages to local routing of
Internet traffic via a common exchange point,
including substantial cost savings by eliminating
the need to put all traffic through more expensive
long-distance links to the rest of the world. In
addition, local links are faster because of the
reduced latency in traffic, which makes fewer
hops to get to its destination.
The Rwanda Internet Exchange has been
operational since mid-2004. In October 2003,
SIDA (Swedish International Development Agency)
began an initiative to assist Rwanda in establishing a national Internet exchange point (IXP).
Network construction is the highest entry barrier
in the communication industry, requiring significant financial resources. Construction of domestic and international backbone networks is
essential to ensure that high-quality, low-cost connectivity is available. Businesses might initially
avoid investing in backbone networks because
The Kenyan government has been aggressively
promoting the development of broadband
backbones through PPPs. It took an active role in
The East African Marine System (TEAMS), an
undersea fiber optic cable linking Mombasa in
Kenya and Fujairah in the United Arab Emirates.
The government encouraged operators in Kenya
Rwanda fulfilled the prerequisites needed for SIDA
assistance, including the presence of a neutral
body to host the peering point, the existence of at
least two independent Internet service providers
(ISPs) in the country, and a team of technicians
from the various Internet providers trained in the
techniques of setting up and maintaining a peering
point. Each network operator provides a circuit
from its backbone and a router that connects to
the IXP switch (Jenson 2009).
Coordinate
access to
rights-of-way
Supply:
domestic
backbone,
local access
they are unsure of the returns on their investments. Governments can partner with the private
sector to provide up-front support in order to
reduce risks or act as an anchor tenant to induce
investment.
to join it in taking an 85% stake in the cable,
which was launched in 2009. More than 10
operators have an ownership interest in TEAMS,
guaranteeing them access at wholesale rates.
Kenya also encouraged PPPs for building the
national fiber backbone and is considering the
same for Long-Term Evolution (LTE) networks
(World Bank 2011).
Obtaining the rights-of-way necessary to deploy
broadband infrastructure can be a complex
process, adding to costs and delaying deployment.
Canada’s Telecommunications Act includes
provisions to facilitate operators’ access to public
property.c
Critical infrastructure consists of essential
network elements or services that are typically
owned by a single or small number of suppliers.
These include facilities such as international and
national fiber optic backbones and fixed local
access networks that cannot be easily replicated.
Facilitating open access to these facilities through
options such as an obligation for providers to
provide wholesale access or structural separation
of wholesale and retail activities can stimulate
competition and lower retail broadband prices.
The European Commission requires incumbent
operators to offer unbundled access to their fixed
telephone networks (European Parliament and
Council of the European Union 2000).
Demand:
affordability
Facilitate
open access
to critical
infrastructure
Supply:
international
connectivity,
domestic
backbone,
local access
Demand:
affordability
Source: World Bank.
a. See the ECTEL website, http://www.ectel.int.
b. See Indonesia, Department of Telecommunications, “Indian Telecom Sector,” http://www.dot.gov.in/osp/Brochure/Brochure.htm.
c. See “ICT Regulation Toolkit: Practice Note, Sharing Rights-of-Way,” http://www.ictregulationtoolkit.org/en/PracticeNote.aspx?id=3245.
341
342
Table B.2
Services Policies and Programs
Sector and
program
Connect
schools to
broadband
networks
Supply and
demand
impacts
Supply:
domestic
backbone,
local access
Demand:
access,
affordability,
awareness
Use government as an
anchor tenant
Supply:
domestic
backbone,
local access
Demand:
access
Monitor
service quality
Demand:
attraction
Description
Example
School connectivity provides many benefits,
including access to an ever-growing volume of
educational information, opportunities for
collaboration, and the use of online applications.
It provides students and teachers hands-on
experience for developing ICT skills. Schools can
also be leveraged to provide connectivity in
off-hours to the rest of the community.
In Chile, the Center for Education and Technology
within the Ministry of Education administers Enlaces, the country’s initiative to improve education
in subsidized state schools using ICTs.a Enlaces
provides access to the Internet to approximately
75% of students in schools that are enrolled in the
project, 67% of which have a broadband connection.
One of biggest expenses in providing broadband
connectivity in rural areas is the “middle mile,”
the portion connecting a town to the Internet
backbone. Once the backbone connection to
government institutions is established, it can be
leveraged to provide retail broadband services to
local residences and businesses. Broadbandconnected government institutions thus become
“anchor points” from which broadband connectivity can be shared with the surrounding community.
The United States has recommended that
broadband connectivity in federal offices located
around the country should be used to extend
broadband access to unserved and underserved
communities.b
Broadband service providers often advertise
broadband speeds that are higher than the
bandwidths actually experienced by the user.
Differences between advertised and actual speed
can affect users’ confidence in the quality of
broadband services. This lack of confidence can
be overcome through regular reporting of service
quality levels.
The Telecommunications Regulatory Authority of
Bahrain publishes quarterly results of its broadband quality of service monitoring (Bahrain,
Telecommunications Regulatory Authority 2011).
It carries out a predefined set of tests around the
clock. The results are stored in a centralized
database. Actual versus advertised speeds for
different ISPs are tested based on access to local
and international websites. The measurements
supplement information already available to
consumers with respect to prices and advertised
speeds.
Create an
enabling
environment
for intermodal
competition
Supply: local
access
Convergence allows for the provision of voice,
data, and broadcast services over telephone,
broadcast, mobile, and Internet networks.
Governments should allow any type of network to
offer any type of broadband service in order to
intensify competition. This includes the legalization of voice over broadband and television over
Internet Protocol services.
Chile allows telecom and television operators to
provide voice, data, and video services. Cable
television operators account for almost half of
broadband lines and around one-fifth of voice
subscriptions.c
Ensure nondis- Demand:
criminatory
attraction
access for
service,
application,
and content
providers
It is critical to ensure that all broadband providers
of services, applications, and content have fair
access to broadband networks. “Network
neutrality” helps to achieve this by preventing
broadband operators from blocking or degrading
access to specific content except when requested by the user.
Chile’s Internet and Network Neutrality Law
prohibits operators from blocking applications or
content unless requested by the user. Intensive
users are required to subscribe to a broadband
plan that reflects the cost of their usage.d
Consider
expanding
universal
service
obligation to
include
broadband
In some countries, the type and quality of
telecommunications services that must be made
available to subscribers are defined in laws. The
inclusion of broadband in such definitions would
require operators to make broadband available on
demand.
In July 2010, the Communications Market Act in
Finland was revised to include a reasonably priced
Internet connection in the definition of universal
service. According to the Ministry of Transport and
Communications, “Telecom operators defined as
universal service providers must be able to
provide every permanent residence and business
office with access to a reasonably priced and
high-quality connection with a downstream rate of
at least 1 Mbit/s.”e The connection can be either
fixed or wireless.
Demand:
attraction
Supply: local
access
Demand:
access,
affordability
Source: World Bank.
a. See “Connect a School, Connect a Community,” http://connectaschool.org/en/schools/connectivity/regulation/Section_6.1_Chile_case_study.
b. See “Government Performance,” http://www.broadband.gov/plan/14-government-performance/#r14-1.
c. See Chile, SUBTEL, “Información estadística,” http://www.subtel.cl/prontus_subtel/site/artic/20070212/pags/20070212182348.html.
d. Chile, SUBTEL, “Reglamento de neutralidad recoge todos los beneficios y derechos de los usuarios consagrados en al Ley de Internet,” Press Release, January 20, 2011,
http://www.subtel.cl/prontus_subtel/site/artic/20110117/pags/20110117093211.html.
e. Finland, Ministry of Transport and Communications, “1 Mbit Internet Access a Universal Service in Finland from the Beginning of July,” Press Release, June 29, 2010,
343
http://www.mintc.fi/web/en/pressreleases/view/1169259.
344
Table B.3 Applications and Content Policies and Procedures
Sector and
program
Supply and
demand
impacts
Undertake
governmentled demand
aggregation,
with government
agencies as
early adopters
and innovators
Supply:
domestic
backbone,
local access
Provide
e-government
applications
Promote
adoption by
industry
Example
In Italy, an agency of the Ministry of Treasury has
aggregated government demand for broadband,
leading to a sharp reduction in the prices paid
(Battisti 2002).
Demand:
attraction
Computerizing public information and providing
e-government services through broadband
networks are essential. E-government encourages citizens to subscribe to broadband services.
In Colombia, all municipalities have a website.
Colombia is the first Latin American country to
accomplish this. The Colombian e-government
portal is linked to some 3,000 websites, with
information about 3,000 administrative processes
of which 541 could be accomplished completely
online as of December 2009. Citizen use of
e-government services doubled in 2009 to over
half a million visits per month.a
Supply:
international
connectivity,
local access
Support for broadband-related industries increases demand for supply-side components, enhancing infrastructure investment and helping to
create long-term sustainable demand for
broadband services. Providing training and
incentives for small and medium enterprises can
help them to get broadband connected to
improve their productivity and widen their market
opportunities.
In Vietnam, the government supports software
parks by developing basic infrastructure and
incubation and securing domestic and foreign
investment for tenants.b
Support for content creation relevant to local
needs and in national languages can help to
attract people to use broadband.
The Jordanian government has facilitated foreign
investment in the digital creation industry. In 2009,
chipmaker Intel announced an investment in two
Jordanian digital content companies: Jeeran and
Demand:
access
Demand:
affordability,
awareness
Promote
creation of
digital content
Description
In many countries, pockets of broadband demand
exist that are too small to obtain adequate
broadband service at favorable prices. By pooling
that demand together, a larger market can be
created, providing incentives for broadband operators to supply the market.
Demand:
attraction
ShooFeeTV.c The funding will be used to help both
companies to pursue regional growth as well as
extend their product offerings.
Support
secure
e-transactions
Demand:
security
Online transactions are an important part of the
broadband environment. Transactions must be
secure and legal to encourage the development of
two-way interactive e-commerce, e-government,
and telemedicine applications. This means that
legal systems need to recognize electronic
signatures and transactions. Information security
such as encryption technologies and antihacking
software, are also critical for a stable and safe
broadband atmosphere.
The Association of South East Asian Nations
(ASEAN) published a reference framework for
e-commerce back in 2001 and has since guided
the creation and harmonization of e-commerce
laws in the region. By April 2008, eight of its 10
members had enacted e-commerce legislation
enabling the legal recognition of online transactions to support applications such as online
retailing and Internet banking.d ASEAN is the first
developing region in the world to implement a
harmonized e-commerce legal framework
throughout member countries.
Implement
reasonable
intellectual
property
protections
Demand:
security
One enabler of content and media development
is the creation of an intellectual property rights
regime that protects creators’ interests while
enabling others to use and improve those
creations. Such rights need to balance the
interests of creators with the larger goals of
enabling knowledge sharing, fair use, and
adaptation. This is particularly relevant for the
development of e-learning and distance education
applications.
Creative Commons licenses allow creators to
specify which rights they wish to reserve, thereby
allowing a range of possibilities between full
copyright and the public domain.e
Source: World Bank.
a. Colombia, Ministry of ICT, “Así marcha el programa,” Press Release, May 10, 2010, http://programa.gobiernoenlinea.gov.co/noticias.shtml?apc=e1c1--&x=2480.
b. See “Leaders of High-Tech Parks from the Asian Science Park Association (ASPA) Gathered in Ha Noi,” http://www.hhtp.gov.vn/69d40b41_c573_4726_b03c_4f86b90969e1_
cms_204.hhtp.
c. Intel, “Intel Capital to Invest in Two Digital Content Companies in Jordan,” Press Release, May 17, 2009, http://www.intel.com/capital/news/releases/090519.htm.
d. Galexia, “Harmonisation of E-Commerce Legal Infrastructure in ASEAN,” April 2008, http://www.galexia.com/public/research/articles/research_articles-art53.html.
e. See the Creative Commons website, http://creativecommons.org/.
345
346
Table B.4
Policies and Procedures for Users
Sector and
program
Supply and
demand
impacts
Description
Example
Provide
low-cost user
devices in
education
Supply: access
device
Demand:
affordability,
awareness
The spread of low-cost computers in schools
typically includes an ecosystem for operating and
maintaining the devices, which often involves
providing broadband access in schools in order to
download software and support the Wi-Fi
capability of the devices. The provision of low-cost
educational computers also develops ICT skills at
an early age, helping to create demand for
broadband.
Uruguay has supplied Wi-Fi–enabled laptops to all
primary school children (Brechner 2009). One of
the goals of the Uruguayan plan was to boost
overall household computer ownership by
leveraging the students taking the laptops home
after school. This has resulted in 220,000 new
homes with computers, including 110,000 in the
lowest-income families.
Develop
digital literacy
programs for
citizens
Demand:
awareness
To raise public awareness of the benefits of
broadband services and promote their use,
governments should provide training on how to
use computers and the Internet. This training can
contribute to the rapid and widespread penetration of broadband. In the short run, such training
generates demand. It can also be a step toward
universal service when the program targets
underserved groups. ICT training for children and
students can change their learning behavior and
interests and, by extension, alter their parents’
views of ICT and broadband.
In Colombia, the Compartel Program within the
Ministry of ICT devoted around Col$153 billion
(US$84 million) in 2009 for teaching free computer
literacy courses at some 1,670 Internet centers
around the country. The courses taught around
200,000 people about basic computer tools,
Internet navigation, e-mail, search engines, chat,
and ICT applications. In addition, teachers use
virtual training and video conferencing at the
centers to offer courses in other subjects. The
centers are often located in educational institutions with access provided to the local community
for training during nonschool hours.a
Address
content and
security
concerns
Demand:
security
Many users are leery of broadband Internet
access because of objectionable content and
security concerns. These concerns can be
alleviated through programs that educate users
about perceived risks, child online protection, and
how to use the Internet safely.
The regulator in Qatar has created a site for
children, teenagers, teachers, and parents
providing tips for safe online surfing.b
Expand
access to
underserved
communities
with Universal
Service Fund
(USF) support
Supply:
national
backbone,
local access
Community
access
centers
Supply: local
access
Facilitate
affordability of
broadband
devices
Supply:
devices
Demand:
access
Demand:
affordability,
awareness,
attraction
Demand:
affordability
USFs—typically financed by contributions from
telecom operators—were initially created to
facilitate the development of telephone infrastructure in rural and other underserved localities.
Given that broadband connectivity can provide
many beneficial services in addition to voice
telephony, countries should consider broadening
the scope of USFs to cover broadband deployment in underserved areas.
Pakistan’s USF is funded by a 1.5% levy on
telecom operator revenues. Broadband projects
are eligible for funding and include the connection
of schools through broadband computer labs and
extending domestic fiber optic backbones to rural
areas.c
Citizens in underserved communities do not use
broadband because they have no access, cannot
afford it, or are not aware of its benefits. Creating
facilities for public broadband use can alleviate
these barriers by establishing a place of access,
offering free or low-cost tariffs, and offering
training. This can include adapting existing public
facilities such as libraries or using schools
after-hours for community access.
In Malaysia, the government established community broadband centers to provide collective
high-speed Internet to underserved areas
identified under the Universal Service Provision
Program.d Each center is outfitted with computers
connected to broadband and provides training.
Computers, mobile phones, and data cards for
broadband use are expensive for many citizens of
developing countries. Countries could consider
developing policies and programs that make user
devices more affordable for people who want to
buy them but lack the means to do so. This
includes reducing or eliminating taxes on
broadband-enabled devices and subsidizing or
offering low- or zero-interest loans for their
purchase.
In March 2009, China announced that it had
selected 14 vendors to offer low-priced personal
computers (PCs) in rural areas. All the PCs in the
winning bid are priced from US$290 to US$510.
This approach is part of the National Home
Appliance Subsidy Program for rural areas. About
57% of the rural population—about 200 million
households—will be eligible for a 13% subsidy if
they purchase one of those PCs (He and Ye 2009).
Source: World Bank.
a. See Compartel, “Más de 200 mil alfabetizados digitalmente en los ‘Nuevos Telecentros Compartel,’” http://archivo.mintic.gov.co/mincom/faces/index.jsp?id=19037.
b. See ictQATAR’s, “Stay Safe Online,” http://www.safespace.qa/csk/en/home.aspx.
c. See Pakistan Universal Service Fund, “Company Profile,” http://www.usf.org.pk/Company.aspx.
d. See Malaysian Communications and Multimedia Commission, “Community Broadband Centres,” http://www.skmm.gov.my/index.php?c=public&v=art_view&art_id=34.
347
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the Committee on Information and Communications Technology meeting,
United Nations, ESCAP, Bangkok, November 24. http://www.unescap.org/idd/
events/cict-2010/Mr-Prasert-NTC.pdf.
Bahrain, Telecommunications Regulatory Authority. 2011. “Broadband Quality of
Service Report.” Telecommunications Regulatory Authority, Manama, January.
http://www.tra.org.bh/en/marketQuality.asp.
Battisti, Daniela. 2002. “Demand Aggregation to Encourage Infrastructure Rollout
to Underserved Regions.” Paper presented at the WPIE/OECD workshop,
“Public Sector Broadband Procurement,” Paris, December 4. http://www.oecd
.org/dataoecd/41/60/2491219.pdf.
Brechner, Miguel. 2009. “Plan Ceibal: One Laptop per Child and per Teacher.”
Paper presented at the seminar, “Reinventing the Classroom,” Inter-American
Development Bank, Washington, DC, September 15. http://events.iadb.org/
calendar/eventDetail.aspx?lang=en&id=1444&.
European Parliament and Council of the European Union. 2000. “Regulation (EC)
No. 2887/2000 of the European Parliament and of the Council of 18 December
2000 on Unbundled Access to the Local Loop.” Oicial Journal of the European
Communities, December 30. http://eur-lex.europa.eu/LexUriServ/LexUriServ
.do?uri=OJ:L:2000:336:0004:0004:EN:PDF.
He, Eileen, and Simon Ye. 2009. “Rural China PC Program Will Increase PC
Shipments in 2009.” Gartner, Stamford, CT. http://www.gartner.com/Display
Document?id=909330.
Jensen, Mike. 2009. “Promoting the Use of Internet Exchange Points: A Guide to
Policy, Management, and Technical Issues.” Internet Society, Reston, VA. http://
www.isoc.org/internet/issues/docs/promote-ixp-guide.pdf.
Roetter, Martyn. 2009. “Mobile Broadband, Competition, and Spectrum Caps.”
Paper prepared for the GSMA, Arthur D. Little, Boston, January. http://www
.gsmworld.com/documents/Spectrum_Caps_Report_Jan09.pdf.
Thailand, National Telecommunications Commission. 2010. “Enabling Open
Networks.” Presentation at the 2010 “Global Symposium for Regulators,”
International Telecommunication Union, Dakar, November 10–12. http://www
.itu.int/ITU-D/treg/Events/Seminars/GSR/GSR10/consultation/contributions/
Thailand.pdf.
World Bank. 2011. “Kenya Broadband Case Study.” World Bank, Washington, DC.
348
Broadband Strategies Handbook
INDEX
A
ABI Research, 102, 118
absorptive capacity of broadband, 26–29,
31n14
Abu Dhabi, 15
access to broadband, 54, 81, 218, 261, 279
Brazil, 319, 322
at community access centers, 255, 257,
268–69, 325
dial-up access, 222
East Asia and Pacific region, 303–6
Europe and Central Asia, 306–8
and infrastructure sharing, 119–21
Latin America and Caribbean region,
308–10
and market environment, 155
open-access requirements, 221
shared access, 268–69
in SIDs, 317
as supply barrier, 40
See also infrastructure; universal
broadband access
accountability, of universal access and
service funds, 187
accounting
accounting separation, 122
and functional separation, 58–59
ACE. See Africa Coast to Europe (ACE)
active sharing of infrastructure, 119–21
adapters, plug-in, 229
Aditya Birla Telecom, 120
adoption of broadband, measurement of,
76, 77–79
ADSL. See asymmetric digital subscriber
line (ADSL)
afordability, 81, 248–49
device ownership, 261–67
Latin America and Caribbean region,
308–9
overview, 259–61
and service costs, 267, 288n23
shared or community access, 268–69
South Asia, 312
Afghanistan, 318
Africa, 106
IDA role in broadband development, 181,
182n4.5, 191n26
income used for telecommunications,
175, 190n19
increase in mobile operators, 65–66
use of EASSy, 114, 205, 211, 241n10, 314
use of PPPs to finance connectivity, 72
use of subsidized modems in, 265–66
See also specific country; Sub-Saharan
Africa
Africa Coast to Europe (ACE), 72, 113b3.3
Alcatel-Lucent, 72
all-IP networks, 198–200, 241n1
Amazon, and cloud computing services, 14
American Tower, 120
analog switch-of (ASO), 104, 105b3.1
Analysys Mason, 8b1.1
349
Anatel, Brazil, 167–68
ANSI-95, 230
antennas, 203, 204
Anti-Counterfeiting Trade Agreement, 142
Antigua and Barbuda, 101, 140
APEC. See Asia-Pacific Economic
Cooperation (APEC)
application programming interfaces (APIs),
281
applications
anchor applications, 278–79
for Apple’s iPhone, 13
as driver of demand, 23b1.4, 26, 278–83,
288n38
m-health, 277
policies and procedures for,
344–45tB.3
Arabic language, 286
Arab nations uprisings, 139, 280, 311
ARCEP. See Autorité de Régulation des
Communications Électronique et des
Postes (ARCEP)
Asia, Internet connections in, 105
Asian Development Bank, 253b6.1
Asia-Pacific Economic Cooperation
(APEC), 138, 146n37
ASO. See analog switch-of (ASO)
asymmetrical speeds, 228
asymmetric digital subscriber line (ADSL),
72, 223, 310
Morocco, 96
Turkey, 79, 80f2.6
AT&T Mobility, 265
attractiveness, 248–49
of applications to drive demand, 278–83,
288n38
of content to drive demand, 283–86,
289nn42–44
overview, 269
and services to drive demand, 269–78
auctions, for spectrum, 99, 324
Australia, 71, 141
fiscal support for broadband, 66–67
measuring digital literacy in, 256b6.2
metropolitan connectivity, 221
spectrum renewal policy, 101, 144n9
and structural separation, 124
Austria, 118
authorization framework, 92–96
Autorité de Régulation des
Communications Électronique
et des Postes (ARCEP), 101–2,
127, 129, 145n21
350
availability
improvement of, 40–42
measurement of, 76–77
of rights-of-way, 115
of spectrum, 98–100
awareness, 137, 248–49
and basic digital literacy, 251–58, 286n5
overview, 249–51
privacy and security concerns, 258
small and medium enterprises, 258–59
B
backbone markets, 76, 86n16, 114–15
backbone networks, 196, 197–98, 202, 217
Botswana, 211, 212f5.5
investment in, 206
Kenya, 322–23
overview, 210–13
Sub-Saharan Africa, 313
Uganda, 210
See also domestic backbone networks
backhaul networks, 115–16, 196, 197,
204, 228
backward compatibility, 230, 236
Bahrain, 19, 80, 81f2.7
BAK. See bill and keep (BAK)
banks and banking, 66
and finance of backbone infrastructure,
217
mobile banking, 26
online banking, 277–78
and support of digital literacy, 253b6.1
barriers to broadband growth, 39–42, 85n2
entry barriers, 121–22
lack of infrastructure, 54
subsidies to reduce, 172, 190n17
base station controllers (BSCs), 116
base transceiver stations (BTSs), 116
BEREC. See Body of European Regulators
of Electronic Communications
(BEREC)
Bezeq, Israel, 224
Bharat Sanchar Nigam Limited (BSNL),
India, 160
Bharti Group, 120
bilateral agencies, 181, 217
bill and keep (BAK), 108–11
bit stream access, 239
BitTorrent, 142
blackspots program, 221
black zones, 171
Body of European Regulators of Electronic
Communications (BEREC), 110, 111
Broadband Strategies Handbook
Bolivia, 16
borrowing for backbone networks, 217
Botswana, 211, 212f5.5
bottlenecks, 111
to broadband networks in developing
countries, 299–302
in broadband supply chain, 112–19,
144n16
policies to eliminate, 55–56
Sub-Saharan Africa, 312–13
bottom-up networks, 73
BPL. See broadband over powerline (BPL)
BRAND. See Broadband Rural and
Northern Development Pilot
(BRAND), Canada
Brazil, 19, 49–50, 310
backhaul networks, 115
and bottom-up networks, 73
broadband experience in, 318–19, 322
employment growth link to
broadband, 10
entry-level prices, 82
licensing regime, 167
reasons for not adopting Internet in,
41–42, 85n2
use of UASFs, 183
weblink to national broadband plans, 335
Brazil Telecom, 168
Broadband Canada, 179
Broadband Delivery UK, 165, 167
Broadband Infraco, 115
broadband over powerline (BPL), 228–29
Broadband Rural and Northern
Development Pilot (BRAND), Canada,
178–79, 190n21
BSCs. See base station controllers (BSCs)
BSNL. See Bharat Sanchar Nigam Limited
(BSNL), India
BT (British Telecom), 69–70, 123, 272
BTSs. See base transceiver stations (BTSs)
budget telecom model, 327
bundling, 271
of infrastructure services, 176–77, 190n20
in South Africa, 266
in Switzerland, 272, 273b6.2
businesses
and broadband absorptive capacity, 27–28
models for used in Sri Lanka, 327
reducing costs with cloud computing,
13–14, 31n6
See also small and medium enterprises
(SMEs)
business process outsourcing, 14, 28
Index
C
cable industry, 77
cable modems, 221, 224–26, 299, 305
cable modem termination system (CMTS),
225
cable television (CATV) networks, 224–26,
299
East Asia and Pacific region, 303, 305
South Asia, 312
cable television operators, 92
Caisse des Depots et Consignations,
France, 167
California Broadband Task Force, 17
calling party network pays (CPNP), 108–11
Canada, 164
access in rural areas, 159
e-government services, 19
impact of broadband on economic
growth, 7–8b1.1
programs to fund broadband
development, 158–59, 190n21
and spectrum, 101, 143n7
capacity
absorptive capacity of broadband, 26–29,
31n14
capacity-building programs, 49–51
capacity-based interconnection (CBI), 110
Cape Town Internet Exchange, South
Africa, 210
Cape Verde, 277
capped packages, 82
Caribbean. See Latin America and the
Caribbean region
carriers, global IP carriers, 208, 209f5.4
CATV. See cable television (CATV)
networks
CBI. See capacity-based interconnection
(CBI)
CCI. See centros de capacitación en
informática (CCI), Dominican
Republic
CCK. See Communications Commission of
Kenya (CCK)
CDMA. See Code Division Multiple Access
(CDMA)
Central Asia, broadband development in,
306–8
centros de capacitación en informática
(CCI), Dominican Republic, 161b4.1
CERTS. See computer emergency response
teams (CERTs)
Cesky Telecom, Czech Republic, 168
charging arrangements, 108–11
351
Chile, 19, 141
bidding for subsidies, 176
broadband strategies in, 47b2.2, 181, 310
digital connectivity plan, 162–63
IXPs in, 216
net neutrality, 127
subsidized rural pay phones in, 175
and UASFs, 184
China, 14, 19
3G technologies in, 234, 235b5.3
CATV networks, 300
fraudulent websites in, 131b3.4
impact of broadband on economic
growth, 7–8b1.1
increase in Internet users, 284
increase in wireless broadband
subscriptions, 20–21
subsidies for computers, 264b6.5
and TC-SCDMA, 234, 235b5.3
China Export and Import Bank, 217
China Mobile, 234
China Telecom, 235b5.3
China Unicom, 235b5.3
CII. See critical information infrastructure
(CII)
circuit-switched voice, 230
Cisco Networking Academy Program, 257
citizen participation
in government, 17–19
via Internet, 139
City Telecom, Hong Kong SAR,
China, 228
civil conflicts, and broadband development,
317–18, 331nn21–22
civil society organizations, 286n3
Classmate, 264b6.5, 266b6.6
CLCs. See computer learning centers
(CLCs)
closed networks, 109
cloud computing, 137, 282–83
and costs for businesses, 13–14, 31n6
as driver of demand, 23b1.4
CMTS. See cable modem termination
system (CMTS)
Code Division Multiple Access (CDMA),
230–34
cognitive radio technologies (CRTs),
98, 241
Colombia, 19
and digital dividend, 104
and digital ecosystem, 275, 276b6.7
National Learning Service, 254
weblink to national broadband plans, 335
352
Comcast, 92
common service centers (CSCs), 269
communal access to broadband, 159–60
communications, convergence with
networks, 93–94
Communications Commission of Kenya
(CCK), 107b3.2
community access centers, 255, 257,
268–69, 325
competition, 15
among service providers, 218
and backbone networks, 213
in broadband development, 43
facilities-based, 116, 300
and flexible-use rules, 98
and infrastructure, 56–58
intermodal broadband, 312
and international connectivity, 210,
211b5.1
in Kenya, 323
and local connectivity, 116–17, 118–19
to lower costs, 112–13
and new entrants, 303–5b7.3, 311
to promote market growth, 54–55
regulation versus investment in
infrastructure, 111
in SIDs, 317
and spectrum allocation, 99
for subsidies, 172–78, 190n20
and supply chain, 55–56
and third-generation technologies,
235b5.3
Turkey, 328
and use of CDMA, 232b5.2
and vertical integration, 122–24, 145n23
Vietnam, 330
computer emergency response teams
(CERTs), 131
computer learning centers (CLCs),
253b6.1
computers
access to, 254
Sri Lanka’s approach to computer
literacy, 252–53
See also digital literacy
Connect America Fund, 186b4.6
connectivity, 257
Chile, 162–63
costs of, 216, 260
domestic backbone, 114–15
funding for school connectivity, 254–55
in Kenya, 322–23
in LLDCs, 316
Broadband Strategies Handbook
local connectivity, 116–19, 229–38,
238–39, 243nn30–31
metropolitan connectivity, 115–16, 196,
197, 218–21
sources of for SIDS, 54–55, 85n6, 316–17
technologies for, 201–5
use of PPPs to finance, 72
and WSIS targets, 297–98
See also backbone networks;
interconnections; international
connectivity
consortium agreements, 114, 206, 211b5.1
constraints
in Brazil, 318–19, 322
on demand, 301
infrastructure as, 313
to UAS, 168
consumer protection
and broadband subscriptions, 270–71
and Internet security, 258
and net neutrality regulation, 125, 126
privacy and data protection, 134–38,
145–46nn30–32, 146nn35–37
content
content-related ofenses, 132, 133
to drive demand, 283–86,
289nn42–44, 311
policies and procedures for, 344–45tB.3
prioritization of by ISP, 125–26
regulation of, 138–43, 146–47nn39–40
user-generated, 284, 285–86
Vietnam, 329
See also local content
contracts, 265–66, 287n20
convergence of networks and
communications, 92–93
copper networks, 201–2, 204–5, 222–23, 228
copyright infringements, 132, 133, 141
Costa Rica, 300
cost-benefit analysis
and broadband infrastructure, 66–69
and subsidy awards, 176
to upgrade copper wire networks, 201–2
costs, 58, 106, 327, 329
of bandwidth, 107b3.2
and cloud computing, 13–14, 31n6
of connectivity, 216, 260
of devices relative to per capita GDP, 261,
263f6.4
to install fiber, 200, 201
of Internet subscription, 270
of IT infrastructure, 13–14, 31n6
link to demand, 40–41
Index
lowering of to support broadband, 170–71
of OLPC initiative, 263
service costs, 267, 288n23
spectrum license fees, 101–2
to tap into submarine cable, 205–6
under BAK, 108
and vertical integration, 121
See also afordability; prices
counterfeiting, 143
coverage indicators, 77
CPEA. See Cross-Border Privacy
Enforcement Arrangement (CPEA)
CPNP. See calling party network pays
(CPNP)
credits, 180–81, 182b4.5, 191n25
criminal law, and computer-related
ofenses, 132–33
critical information infrastructure (CII),
security of, 130
Croatia, 300
cross-border cooperation, for international
connectivity, 210
Cross-Border Privacy Enforcement
Arrangement (CPEA), 138, 146n37
crowdsourcing, 281–82
CRTs. See cognitive radio technologies
(CRTs)
customer relations, impact of broadband
on, 14–15
customs duty exemptions, 86n15
cybercrime, 132–33
cybersecurity, 129–34, 145n29
cybersquatting, 143
Czech Republic, and open-access
networks, 168
D
dark fiber, 201
data
and BPL, 228–29
broadband-enabled data profiling, 136
cross-border data flows, 137–38, 146n35
data-intensive services, 99
government information, 273–74
high-data-rate services, 203
protection of, 130, 132, 134–38,
145–46n30, 146nn35–37
transfer rates of, 3
transmission by satellite, 202
transmission speed of, 205
transparency in collection of, 136–37
and VDSL, 223–24
volume of downloaded, 82
353
data caps, 267, 270–71
data controllers, 135, 136, 146n32
Data over Cable Service Interface
Specification (DOCSIS), 224–26
definitions
absorptive capacity, 31n14
active wireless subscriptions, 78
broadband, 3–4, 30n1
synchronous, 234
demand-side components, 39, 203, 301
in Chile, 310
and competition for subsidies, 174–75,
190nn18–19
in East Asia and the Pacific, 306
in Europe and Central Asia, 307–8
in Latin America and Caribbean, 308–9
in LDCs, 313, 315n15
link to innovation, 25–26
lowering barriers to adoption, 40–42,
85n2
measurement of, 76, 77–79
in Middle East and North Africa region,
310–11
pillars of facilitation of, 248–49
and policies for broadband development,
320–21t7.2
promotion of, 59–62
in SIDs, 317
in South Asia, 311–12
in Sri Lanka, 326–27
in St. Kitts and Nevis, 326
strategies and policies for, 51–52, 53t2.2,
247–48
in Sub-Saharan Africa, 312, 313
trends in, 22–24
in Turkey, 329
See also afordability; attractiveness;
awareness; infrastructure;
supply-side components
Denmark, 159, 259
Dense Wave Division Multiplexing
(DWDM), 201
developing countries
and broadband
challenges to development, 295–96
global goals for, 296–98
and opportunities for development in,
299–302
and Internet interconnections, 104–7
ISPs in, 106
policies
for applications and content,
344–45tB.3
354
for broadband services, 320–21t7.2,
342–43tB.2
for promoting infrastructure,
338–42tB.1
regional broadband status in, 311–12,
313t7.1
East Asia and Pacific region, 303–6
Europe and Central Asia, 306–8
Latin America and Caribbean region,
308–10
Middle East and North Africa, 310–11
South Asia, 313t7.1
Sub-Saharan Africa, 312–14
technical support and outsourcing from,
14, 28
UASFs for, 181–85, 186
See also landlocked developing countries
(LLDCs); policies and policy making;
specific country
development banks, 180
development of broadband, 157–58, 330,
342–43tB.2
and achievement of MDGs and WSIS
targets for, 296–98
absorptive capacity of, 26–29, 31n14
in Brazil, 318–19, 322
country-specific solutions, 42–44
country summaries, 319f7.6
in East Asia and Pacific region, 303–6
in Europe and Central Asia, 306–8
fiscal support for, 74–75
funding to support, 178–81, 190n21,
191nn23–25
in Kenya, 319f7.6, 320t7.2, 322–23
key lessons for, 42–43
in landlocked countries, 315–16
in Latin America and Caribbean region,
308–10
in least developed countries, 315, 331n15
market trends fostering, 19–24
in Middle East and North Africa region,
310–11
in Morocco, 319f7.6, 320t7.2, 324–25
opportunities for, 299–302
in postconflict countries, 317–18,
331nn21–22
and PPPs, 71–72, 306
private sector involvement in, 169–71
problems with promotion of, 37–38
public sector’s role in, 38–44,
84–85nn1–2
in SIDs, 316–17
in South Asia, 311–12, 313t7.1
Broadband Strategies Handbook
in Sri Lanka, 312, 319f7.6, 321t7.2, 326–27
in St. Kitts and Nevis, 319f7.6, 321t7.2,
325–26
in Sub-Saharan Africa, 312–14
subsidies for, 171–78, 190nn17–19
in Turkey, 47b2.2, 319f7.6, 321f7.2, 327–28
in Vietnam, 319f7.6, 320t7.2, 328–30
See also ecosystem model; financing
broadband development; policies and
policy making
devices
mobile devices, smartphones, and
tablets, 237, 238, 262–67, 287n20
PCs, laptops, and netbooks, 261–63,
264b6.5
prices of, 262b6.4
shipments of, 21–22
dial-up access, 222
dig.com, 286
digital divide, 2, 19, 240–41, 248
digital dividend activities, 103–4, 105n3.1
digital literacy, 16, 41–42, 61, 62, 249–50
and common service centers, 269
community access centers, 255, 257
education for, 251–58, 264b6.5
and languages used on Internet, 285,
289n43
measuring in Australia, 256b6.2
Sri Lanka’s approach to, 252–53
See also training for ICTs
Digital Millennium Copyright Act (DMCA),
United States, 141
digital subscriber line access multiplexer
(DSLAM), 223
digital subscriber line (DSL), 77, 221,
222–24, 299
access to fiber, 226
connection speeds, 223–24
and LLU, 117, 238–39
requirements for, 270
Switzerland, 169
digital terrestrial television (DTT), 103–4,
105b3.1
Digital Vision, Turkey, 328
direct to home (DTH) dishes, 203
disadvantaged groups, and digital
literacy, 252
disclosure requirements, 127
DMCA. See Digital Millennium Copyright
Act (DMCA), United States
domain name system (DNS), 80, 240
domestic backbone networks, 114–15, 206–7
implementation issues, 216–18
Index
and Internet exchanges, 214–16
national links for, 213–14
overview, 210–13
See also backbone networks
Dominican Republic, 101, 160–61,
189n9, 248
DSLAM. See digital subscriber line access
multiplexer (DSLAM)
DSL. See digital subscriber line (DSL)
DTH. See direct to home (DTH) dishes
DTT. See digital terrestrial television
(DTT)
DWDM. See Dense Wave Division
Multiplexing (DWDM)
E
EASSy. See Eastern African Submarine
Cable System (EASSy)
East African Marine System (TEAMS), 314
East Asia and the Pacific region, broadband
development in, 303–6, 317
Eastern African Submarine Cable System
(EASSy), 114, 205, 211, 241n10, 314
Eastern Caribbean Telecommunications
Authority (ECTEL), 317
East Timor, 318
e-banking, 277
eBay, 143
e-businesses, 259
e-commerce, 147n40, 324, 329, 345
Economic and Social Commission for Asia
and the Pacific (ESCAP), 307–8, 316
Economic Commission for Latin America
and the Caribbean, 84
economic stimulus packages, 70–71
economies, 39
and backbone networks, 213
broadband-enabled growth of, 5–8, 28–29
consideration of by policy makers, 62–63
emerging, 12, 301–2
and fiscal support for broadband, 66–69,
85n9
link to broadband absorptive capacity,
27–28
Morocco, 324
policies for broadband development by
country, region, and economic level,
320–21t7.2
postconflict countries, 317–18,
331nn21–22
Turkey, 327, 328
Vietnam, 329
See also gross domestic product (GDP)
355
economies of scale, 121
ecosystem model, viewing broadband as,
4–5, 24–26, 323, 325, 346
and absorptive capacity, 26–29, 31n14
Colombia, 275, 276b6.7
and e-government, 328
and legal framework, 130
See also demand-side components;
supply-side components
EC. See European Commission (EC)
ECTEL. See Eastern Caribbean
Telecommunications Authority
(ECTEL)
EDGE. See Enhanced Data Rates for GSM
Evolution (EDGE)
e-Dominicana Strategy, 160–61, 189n9
education
Afghanistan, 318
digital literacy through, 251–58, 264b6.5
e-education, 254, 275, 283
Europe e-learning, 283
link to broadband demand, 308–9
MDGs concerning, 297
on privacy issues, 137
and Web2.0, 282–83
See also training for ICTs
Eee PC, 266b6.6
E-Escola Program, Portugal, 264
eiciency, in flow of UASFs, 187
e-government, 258, 273
impact of broadband on, 17–19
Morocco, 324–35
Sri Lanka, 326, 331n22
Turkey, 328
United States, 19, 274, 275
Egyptstreet diwan, 286
e-health, 16–17, 275–77, 288n31
e-Inclusion, 252
eLAC2015, adoption of, 309–10
e-learning, Europe, 283
electricity, and use of broadband over
powerline, 229
e-literacy, 62
emergency calls, 271
emerging economies, 12
growth in wireline broadband, 301–2
See also economies
employment
impact of broadband on, 9–10, 30n3
impact on GDP, 2
enabling platform, 1, 4–5, 11
and competition for subsidies, 174,
175t4.3, 177–78
356
and economic development, 28–29
and migration to digital networks, 22–24
encoding schemes, 228–29
enforcement issues, 137–38, 140, 146nn35–37
English language use, 284, 285f6.6, 289n42
Enhanced Data Rates for GSM Evolution
(EDGE), 198, 229–30, 233t5.5,
243nn30–31, 265–66
ENTEL-Chile, 176
Ericsson, 204
Ericsson and Apollo Telemedicine
Networking Foundation, 277
ESCAP. See Economic and Social
Commission for Asia and the Pacific
(ESCAP)
e-services, 274–75
e-Sri Lanka, 326, 331n22
Ethernet, 228, 229
EuroDOCSIS, 224, 226
Europe, 117, 136
broadband development in, 306–8
e-learning initiatives, 283
and infrastructure access, 57
Internet connections in, 105
submarine cable to link to Africa, 72
subsidies for mobile devices, 265
See also specific country
European Commission (EC), 10, 117, 161
broadband impact studies by, 15–16
charging arrangements, 110
Communication on Broadband, 158
and data privacy protection, 135, 137
functional separation proposals, 123
guidelines for fiscal support of
broadband, 69
net neutrality policies, 126
privacy by design, 136
state aid rules, 170
Europe and Central Asia, broadband
development in, 306–8
European Investment Bank, 66
European Regional Development Fund,
Convergence Program, 70
European Union (EU), 97, 165, 252
broadband subscriptions, 78–79
and data privacy protection, 135, 146n31
employment growth link to broadband, 10
general authorization regime, 95
and ISP liability, 141
Telecoms Reform, 123, 145n23
and use of public funds for broadband,
69, 70b2.4
use of USFs, 73–74
Broadband Strategies Handbook
EUROSTAT, as source of statistics, 84
EU. See European Union (EU)
evaluation, 82–84
EV-DO. See Evolution Data Optimized
(EV-DO) technologies
Evolution Data Optimized (EV-DO)
technologies, 230, 232t5.4
F
Facebook, 134, 139, 280, 311, 328
facilities-based operators (FBOs), 95,
112–14
fair use policies, 239–40
Family Online Safety Institute, 140–41
Fast Reliable Instant Eicient Network
Disbursement of Services
(FRIENDS), India, 269
FASTWEB, Italy, 304b7.3
FBOs. See facilities-based operators (FBOs)
FDD. See Frequency Division Duplexing
(FDD)
FDMA. See Frequency Division Multiple
Access (FDMA)
Federal Communications Commission,
United States, 87n20, 110, 128,
188b4.6
fiber broadband, 69, 145n21
fiber optic backbone, Kenya, 322–23
fiber optic cables, 201–2, 213–14
fiber optic networks
costs of, 329
India, 86n16, 312
and infrastructure, 115
investments in, 300
Malaysia, 306
revenues from, 57–58
fiber to the building or business (FTTB),
226–27
fiber to the curb (FTTC), 226–27
fiber to the home (FTTH), 47b2.2, 221,
226–28
fiber to the node (FTTN), 226–27
fiber to the premises (FTTP), 77, 117, 299
FICORA. See Finnish Communications
Market Act (FICORA)
Fiji, 317
file sharing, 142
financial services, 277–78
financing broadband development
and competition for subsidies, 177
government support to enhance private
investment in, 64–65
management of funds, 185, 187
Index
sources of funds to support, 178–81,
190n21, 191nn23–25
submarine cable systems, 205
See also fiscal support; funding;
investments; Universal Access and
Service Funds (UASFs)
Finland
cognitive radio in, 241
promotion of universal access, 165
spending on telecommunications, 190n19
universal broadband access, 158
use of PPPs for broadband
development, 72
weblink to national broadband plans, 335
Finnish Communications Market Act
(FICORA), 158
First Nation Community, 178, 190n21
FIRST. See Forum of Incident Response
and Security Teams (FIRST)
fiscal support
comparison of alternative instruments,
74–75, 86n15
economic justification of, 66–69, 85n9
subsidies as instrument of, 171–78,
190nn17–19
types of, 69–75, 86n15
See also financing broadband
development; investments
FITEL. See Fondo de Inversión en
Telecomunicaciones (FITEL), Peru
fixed-line infrastructure, 124
Flat World Knowledge, 283
flexible-use rules, 97–98
Flickr, 282
FLOW, 160
Fondo de Inversión en Telecomunicaciones
(FITEL), Peru, 165, 166–67b4.3, 184
foreign policy, Turkey, 328
Forum of Incident Response and Security
Teams (FIRST), 131b3.4
Forum of Latin American
Telecommunications Regulators,
184–85
fourth-generation (4G) mobile networks,
236
France, 121, 127, 142
development of broadband
infrastructure, 167
and fine imposed on Google, 145–46n30
new service providers, 304b7.3
spectrum license renewals, 101–2
weblink to national broadband plans, 335
Free, France, 304b7.3
357
freedom of opinion and expression, 139–40,
146–47n40
Frequency Division Duplexing (FDD), 233,
234, 236
Frequency Division Multiple Access
(FDMA), 233t5.5
FRIENDS. See Fast Reliable Instant
Eicient Network Disbursement of
Services (FRIENDS), India
FTTB. See fiber to the building or business
(FTTB)
FTTC. See fiber to the curb (FTTC)
FTTH. See fiber to the home (FTTH)
FTTN. See fiber to the node (FTTN)
FTTP. See fiber to the premises (FTTP)
functional separation, 58–59, 122–23,
145n23
funding
for access facilities, 268–69
for broadband strategies, 257
direct government funding, 70–71
for school connectivity, 254–55
See also financing broadband
development; fiscal support;
investments
Fundo de Universalização dos Serviços
de Telecommunicações (FUST),
Brazil, 183
G
gambling online, 140
GDP. See gross domestic product (GDP)
general authorizations, 94–95
General Packet Radio Service (GPRS), 198,
230, 243nn30–31
general-purpose technology (GPT), 4, 50
and cloud computing, 13–14, 31n6
e-government applications, 17–19
and health care sector, 16–17, 18t1.2
and human capital, 15–16
overview, 11–12
and research and development, 12–13
and retail and services sectors, 14–15
and supply chain management, 15
geography, as challenge to service, 306, 317,
322–23
geostationary communication satellites, 202
Gigabit passive optical network (GPON),
228t5.3
Global Partnership on Output-Based Aid
(GPOBA), 181
Global Privacy Enforcement Network, 138,
146n36
358
Global System for Mobile Communications
(GSM), 97, 102, 230, 233
goals
for broadband in development countries,
296–98
for broadband in United Kingdom,
69–70
cross-sector nature of, 62–63
See also policies and policy making
Google, 134, 145–46n30, 210
Google Docs, 282
governance, 27–28, 177
governments, 131, 134, 140, 258
access and connectivity issues
funding for digital connectivity,
162–63
and infrastructure development, 322
instruments to achieve access, 155–56
interventions for metropolitan
connectivity, 219, 221
interventions to drive access, 163–67
policies to improve universal access,
167–69, 190n15
subsidies to support access, 171–78,
190nn17–19
broadband development, 164, 260
direct intervention in, 70–71
elements to consider when creating
policies for, 48b2.3
Kenya, 323
promotion of, 2, 30, 38–44, 59–62
providing national level focal point for,
49–51
role in facilitation of, 51–52, 63–64
services to promote participation in,
272–754
sources of funding for, 178–81, 190n21,
191nn23–25
citizen participation in, 17–19
and data collection issues, 134–35
and economic justification for fiscal
support, 66–69, 85n9
and fiber optic backbone networks,
217–18
measures to monitor services, 270–71
and private sector, 42–43, 52, 54, 169–71
programs to increase purchase of
devices, 261, 263, 264b6.5
and public input into policies, 45–46
GPON. See Gigabit passive optical network
(GPON)
GPRS. See General Packet Radio Service
(GPRS)
Broadband Strategies Handbook
GPT. See general-purpose technology
(GPT)
grants, 180–81, 182b4.5, 191n25
greenfield building projects, 226, 300
gross domestic product (GDP)
impact of broadband on, 2, 5–8
prices of devices relative to, 261, 264f6.4
groupware, 282
GSM. See Global System for Mobile
Communications (GSM)
H
Haiti, relief eforts in, 282
Hanaro, Korea, 303b7.3
handsets, 238
harmonization
of DTT & digital dividend activities, 104,
105b3.1
of e-commerce, 345
regional, 317, 338tB.1
of spectrum bands, 98–99
Harvard Business Review Analytic
Services, 13–14, 31n6
health care sector, 16–67, 18t1.2, 275–77,
288n31
HFC. See hybrid fiber coaxial (HFC)
network
High-Speed Downlink Packet Access
(HSDPA), 234
High-Speed Packet Access (HSPA), 198, 234
High-Speed Uplink Packet Access
(HSUPA), 234
HKBN. See Hong Kong Broadband
Network (HKBN)
HomePlug Powerline Alliance, 229
Hong Kong Broadband Network (HKBN),
304b7.3
Hong Kong SAR, China, 209–10, 228, 303,
304b7.3
hotspots for WiFi, 102, 237
households, and broadband service, 158–59,
160–61, 189n9
HSDPA. See High-Speed Download Packet
Access (HSDPA)
HSPA. See High-Speed Packet Access
(HSPA)
HSUPA. See High-Speed Upload Packet
Access (HSUPA)
human capital, and broadband absorptive
capacity, 27–28
human development index, 301–2
human rights laws, 139, 146–47n39
Hungary, 170
Index
Hutchison 3G, 120, 280
hybrid fiber coaxial (HFC) network, 225
I
Iceland, 158
ICT. See information and communications
technology (ICT)
IDA. See Info-communications
Development Authority (IDA),
Singapore
IDC. See International Data Corporation
(IDC)
IEEE. See Institute of Electrical and
Electronics Engineers (IEEE)
implementation
backbone network issues, 216–18
and connectivity issues, 208–10, 219, 221,
238–39
of IXPs, 214–16
of plans, 46, 48
IMT-2000, 230–31, 233–35
IMT-Advanced. See International Mobile
Telecommunications-Advanced
(IMT-Advanced) technologies
IMT. See International Mobile
Telecommunications (IMT)
incentives, 42
to extend backbone networks, 217
by governments to spur broadband, 70–71
to purchase devices, 261, 263
and rights-of-way, 58
tax treatment, 86n15, 170
income
and broadband subscriptions, 296f7.1,
301, 319, 322
spent on telecommunications, 175, 190n19
India, 81, 116, 120, 169, 257
broadband development issues, 50, 312
business process outsourcing in, 14, 28
CSCs, 269
fiber optic backbone, 86n16
fraudulent websites in, 131b3.4
global carriers, 208, 209f5.4
impact of broadband on economic
growth of, 7–8b1.1
increase in broadband subscribers, 19,
20–21
service-specific licensing in, 97
spectrum auctions, 99
support for communal access, 160
telemedicine in, 277
and universal access, 169
wireline networks in, 311–12
359
individual users, and access to broadband
service, 158–59
Indonesia, 230, 280, 305
Indotel, Dominican Republic, 161b4.1
Indus Tower, 120
industrial sectors, and supply chain
management, 15
Industry Canada, 159
Infocom, Uganda, 210
Info-communications Development
Authority (IDA), Singapore, 50, 81, 122,
207
infoDev, 183
information
file sharing, 142
networked information economy, 139–40
information and communications
technologies (ICTs), 1, 161, 296, 318
and achieving MDGs, 297
broadband as enabling platform for, 4–5,
11, 29b1.5
Chile, 47b2.2
and GDP growth, 5–6
impact of R&D on, 12–13
Korea, 163
Morocco, 324
national plans for, 306–8
and private-led markets in, 156–57, 189n1
role of public sector in promotion of,
38–44
skills to use, 249–50
training for, 15–16, 250–51, 254, 257–58
and WSIS targets, 297–98
information technology (IT), Sweden, 48
informed consent, 135
infrastructure, 172, 197, 200, 300, 322
access to, 56–57
Brazil, 318
components of, 196–98
as constraint, 313
costs of, 13–14, 31n6
fixed-line, 124
France, 167
household income used for services, 175,
190nn18–19
impact on broadband market, 300–301
investment in, 304b7.3
policies and programs for, 338–42tB.1
in postconflict countries, 317
regulation versus investment in, 111
required for wireline broadband,
299–300, 299–302
sharing of, 57–58, 119–21, 145n21
360
supply factors, 39
bottlenecks in supply chain, 112–19,
144n16
promotion of supply of, 52, 54–59,
60t2.3, 85n6
supply trends, 20–22
innovations, 12–13, 25–26, 327
input, by stakeholders, 45–46
Institute of Electrical and Electronics
Engineers (IEEE), 219, 227–28, 234,
236, 237
institutional access to broadband, 159–60
institutional capacity, as factor in
competition for subsidies, 178
institutional settings, to gain ICT
knowledge, 250–51
Intel Classmate, 264b6.5, 666b6.6
intellectual property rights (IPRs), 133, 138,
141–43
interconnections, 221
charging arrangements, 108–11
and IXPs in developing countries, 104–7
need for in LLDCs, 316
Vietnam, 329–30
interference, 103, 229
international connectivity, 112–14, 144n16,
196, 197–98, 314, 327
implementation issues, 208–10
international links, 205–7, 241n10
Internet links, 207–8, 209f5.4
international cooperation
and CII security, 130–31
enforcement on privacy issues, 137–38,
146nn35–37
need for cybersecurity, 133–34
International Data Corporations (IDC), 21
International Development Association,
181, 182b4.5, 191n26
international development loans, 67, 85n6
International Finance Corporation, 180–81,
191n24
International Mobile TelecommunicationsAdvanced (IMT-Advanced)
technologies, 99, 235–36
International Mobile Telecommunications
(IMT), 230, 233
International Telecommunication Union
(ITU), 77, 180
and DSL technology, 223
and fiber optic cable protocols, 227–28
and IMT, 230, 233
and IMT-Advanced networks, 235–36
as source of statistics, 84
Broadband Strategies Handbook
and UAS, 168–69
use of electrical wiring for home
networking, 229
and WiMAX, 235
and WSIS targets, 297–98
Internet, 1, 270–71
access at school, 254
access to in community access centers,
255, 257
blocking or slowing down service
delivery, 124–25
English language for, 284, 285f6.6,
289n42
non-users of, 247, 286n2
points of presence for, 183, 186b4.7
users of, 79, 268–69, 284
See also privacy; security
Internet exchange points (IXPs)
creation of, 210
in developing countries, 104–7
and domestic backbone, 214–16
Uganda, 186b4.7
Internet Industry Association,
Australia, 141
Internet Protocol-based interconnections
charging arrangements, 108–11
importance of, 104
and IXPs in developing countries, 104–7
Internet Protocol (IP)
all-IP networks, 198–200, 241n1
global IP carriers, 208, 209f5.4
packet switching, 235
version 6, 309b7.5
Internet Protocol television (IPTV), 3, 92,
200, 271–72
Internet service providers (ISPs), 65, 71,
104, 106
incentives to extend backbone networks,
217
and Internet exchanges, 214–16
and Internet links, 207–8, 209f5.4
and investment in backbone
networks, 206
liability for content, 141
and network neutrality, 124–25, 127
peering arrangements for, 109
performance of, 80–81
tax incentives for, 170
and technology neutrality, 93–94
interventions, 163–67, 171
Inuit Community, 178, 190n21
investments, 40, 56, 226
in fiber optic networks, 300
Index
as fiscal support, 69
government support of, 64–65
and licensing fees, 102
market-based, 70–71
in postconflict countries, 318
from private sector, 2, 42, 64–65
regulation versus investment in
infrastructure, 111
in satellite technology, 203
in submarine cable, 85n6
in Sub-Saharan Africa, 313
to support communications services, 180
IPRs. See intellectual property rights
(IPRs)
IP. See Internet Protocol (IP)
IPTV. See Internet Protocol television
(IPTV)
Iraq, 318
Ireland, 159
ISPs. See Internet service providers (ISPs)
Israel, 224
Italy, 29b1.5, 73, 74b2.5, 304b7.3
ITP-C, 266b6.6
IT. See information technology (IT)
ITU. See International Telecommunication
Union (ITU)
IXPs. See Internet exchange points (IXPs)
J
Jamaica, 160
Japan, 226, 303–4b7.3, 335
J:Com, Japan, 226
Jeeran, 311
job creation, impact of broadband on, 9–10,
30n3
joint ventures, and infrastructure
sharing, 120
Jordan, 311
jurisdictional issues, 63
K
Kazakhstan, 307–8
KDN. See Kenya Data Networks (KDN)
Kenya, 15, 314
broadband development in, 319f7.6,
320t7.2, 322–23
increase in subscriptions, 61
and IXPs in, 107
and undersea landing stations, 316
Kenya Data Networks (KDN), 54, 210
Kenya ICT Board, 278, 284
Kenya Internet exchange points (KIXP),
107b3.2
361
Kenya Power and Lighting Company
Limited, 218
keyboards, 284–85, 289n43
KidSMART, United Kingdom, 258
Kigali Metropolitan Network, Rwanda, 71
KIXP. See Kenya Internet exchange points
(KIXP)
Korea, Republic of, 19, 92
increase in service providers, 65, 303b7.3
Internet security in, 258
and locally developed video games, 278
plans to promote broadband, 46, 163
WiBro, 235
Korean Agency for Digital Opportunity and
Promotion, 264b6.5
Korea Telecom, 71
KPN. See Royal Dutch Telecom (KPN)
Kyrgyz Republic, 307–8
L
landing stations, 206–7
landlocked developing countries
(LLDCs), 210
access to submarine cables, 113, 205–6
broadband development in, 307, 315–16
and connectivity issues, 197, 208, 314
land use planning, 58
language
Internet users by, 284, 285–86,
289nn42–43
and local content, 311
LANs. See local area networks (LANs)
laptops, 254, 261–63, 265b6.5
“last mile” networks, 116–19
latency times, 203, 240
Bahrain, 80, 81f2.7
as indicator of quality, 79–80
and satellite use, 238
Latin America and the Caribbean region
broadband development, 308–10
Internet use by age, 268–69
SIDs in, 317
subscription rates, 325
use of UASFs in, 182–85
See also specific country
LDCs. See least developed countries
(LDCs)
leases, 221
least-cost subsidies, 172–73
least developed countries (LDCs),
broadband development in, 315,
331n15
legal framework, 142, 275
362
content issues, 138–43, 146–47nn39–40
and cross-border e-commerce,
147n40
and cybercrime, 132–33
and cybersecurity, 130, 133–34
and demand facilitation, 248
and enforcement of privacy issues,
137–38, 146nn35–37
human rights law, 139, 146–47n39
for ITC environment, 91–92
privacy and data protection, 134–38,
145–46nn30–32, 146nn35–37
and universal access, 167–69, 190n15
See also regulatory framework
licensing, 240
and coverage obligations, 119
for IXPs, 106–7
options and implications for broadband,
94–96
overview, 92–93
to provide television, 272
services specific, 97
of spectrum, 97
license-exempt spectrum, 102–3,
144n11
renewal of, 100–102, 143n7, 144n9
and technology and service neutrality,
93–94
for universal access, 167
Wi-Fi, 237, 243n42
LIME, 160
line-of-sight communications, 204
line sharing, 239
literacy. See digital literacy
Lithuania, 300
LLDCs. See landlocked developing
countries (LLDCs)
LLU. See local loop unbundling (LLU)
loans, 67, 85n6, 180–81, 182b4.5, 191n25
local access networks, 196, 197–98, 237
and cost to install fiber, 200
fiber penetration in, 202
local area networks (LANs), 228–29
local connectivity, 116–19
implementation issues, 238–39
and wireless access technologies, 229–38,
243nn30–31
and wireline access technologies,
221–29
See also wireless broadband
local content, 138
and broadband demand, 311
development of, 278
Broadband Strategies Handbook
promoting of, 284–86, 289nn42–44
and social networking, 280–81
Sub-Saharan Africa, 313
local governments
and access to broadband, 165
and broadband development, 73, 74b2.5
and broadband infrastructure, 167
local loop unbundling (LLU), 59, 116–17,
238–39
Long-Term Evolution (LTE)-Advanced, 236
Long-Term Evolution (LTE) technology,
116, 198, 236, 314
low-and-middle income countries, 156–58
LTE. See Long-Term Evolution (LTE)
M
macroeconomics
and broadband absorptive capacity,
27–28
See also economies
Malaysia, 248, 306
broadband strategies in, 47b2.2
employment growth link to
broadband, 10
use of PPPs for broadband development,
72–73
Wi-Fi, 237
Malaysian Communications and
Multimedia Commission (MCMC), 10,
248
Malaysian Information, Communications,
and Multimedia Services (MyICMS),
47b2.2, 72–73
Maldives, 210, 211b5.1
markets, 2, 159, 164–66, 171, 176
advantage of LLU in, 117
backbone markets, 76, 86n16
and broadband development, 19–24,
155–56, 247
for CATV networks, 305
competition to promote growth of,
54–55, 181, 182
disruptions of by new entrants, 303–5
and international connectivity, 112–13
mechanisms for spectrum, 118–19
private-led, 156–57, 169, 189n1
and regulatory framework, 167
secondary markets for spectrum
trading, 100
and subsidies, 172–74, 177
Mauritius, 14
m-banking services, 277–78
McKinsey and Company, 5
Index
MCMC. See Malaysian Communications and
Multimedia Commission (MCMC)
MDGs. See Millennium Development Goals
(MDGs)
measurement
of adoption of Internet, 76, 77–79
of availability, 76–77
of digital literacy in Australia, 256b6.2
and evaluation, 82–84
overview of broadband indicators, 76,
86nn16–17
of pricing policies, 76, 77f2.4, 81–82,
83t2.6
of quality, 76, 77f2.4, 79–81, 87n20
See also monitoring
medical outcomes, 16–17, 18t1.2
medical records, 275–77, 288n31
Metis Community, 178, 190n21
metropolitan connectivity, 115–16, 196, 197,
218–21
Mexico, 136, 230, 232b5.2
m-health, 16, 17b1.3, 276–77
microwave systems, 203–4, 214, 217
Middle East and North Africa region
broadband development in, 310–11
See also specific country
middle-income countries, broadband
strategies in, 47b2.2
“middle-mile” infrastructure, 115–16, 218
military campuses, and Internet
connectivity, 257
Millennium Development Goals (MDGs),
296–98
mobile application laboratory, 323
mobile broadband services
Brazil, 319
contrasted with wireline services, 128–29
East Asia, 305
Kenya, 323
Latin America and Caribbean, 308
Morocco, 311, 324
and service neutrality, 93
Sub-Saharan Africa, 314
subscriptions for, 19–20, 82, 83t2.6,
305, 311
Turkey, 328
and use of Wi-Fi, 238
Vietnam, 329
mobile devices, 5–6, 157, 250, 263–67, 280,
287n20
mobile education labs, 16
mobile health (m-health), 16, 17b1.3, 276–77
mobile money services, 277
363
mobile operators
and backbone service, 114
increase of in Africa, 65–66
mobile virtual network operators
(MVNOs), 119
Mobilis, 266b6.6
mobility, as key to social networking, 280
Moldova, 304b7.3, 307
Moldtelcom, Moldova, 307b7.4
Mongolia, 16, 173b4.4, 181
monitoring, 82–84, 142, 270–71
Morocco
broadband development in, 319f 7.6,
320t7.2, 324–25
ICT training in, 16
new service providers, 304–5b7.3
spectrum in, 96, 311
and universal access, 169, 190n15
M-PESA mobile money platform, 323
MPLS. See Multiprotocol Label Switching
(MPLS)
MTN, 266
multilateral agencies, 217
multilateral development organizations,
180–81
multiplexing, 201, 223, 228–29
Multiprotocol Label Switching (MPLS),
198
multiservice authorizations, 95–96
municipal broadband networks, 73
municipal governments, and access to
broadband, 165
mutualization of fiber, 145n21
MVNOs. See mobile virtual network
operators (MVNOs)
MyICMS. See Malaysian Information,
Communications, and Multimedia
Services (MyICMS)
N
NAFID@, Morocco, 16
Napster, 142
national backbone network, 196, 197–98
National Broadband Initiative (NBI),
Malaysia, 248
National Broadband Plans (NBPs), 45, 322
Brazil, 50
select South Asia nations, 313t7.1
United States, 99, 110, 160, 161, 259, 336
weblinks to, 335–36
National Broadband Scheme (NBS),
Iceland, 159
nationwide broadband network (NBN), 50
364
NBI. See National Broadband Initiative
(NBI), Malaysia
NBN. See nationwide broadband network
(NBN)
NBPs. See National Broadband Plans
(NBPs)
NCC. See Nigerian Communications
Commission (NCC)
Net1, Sweden, 232b3.2
netbooks, afordability of, 261–63, 265b6.5
the Netherlands
e-government services, 275
and local applications development, 259
local government support for broadband
development, 73, 74b2.5
subsidies for connecting, 267
transition to all-IP network, 200
net present value (NPV), 68–69, 162b4.2
networked information economy, 139–40
network management practices, 240
network neutrality, 125–29, 139
network operators, 92, 93–94
network platforms, 25
networks, 40, 66–67, 221
access to, 56–57, 109
all-IP networks, 198–200, 241n1
convergence with communications,
93–94
demand for, 40–42, 85n2
investments in, 71
network build-out, 219, 220
network management practice, 126,
128–29
network-sharing agreements, 57–58
next generation, 104, 108–11, 198, 224
open-access networks, 168
overview of, 195–96
See also specific network
new entrants, to broadband services, 303–5
New Zealand, and illegal file sharing, 142
next-generation access (NGA), 69–70,
94–96, 170–71
next-generation networks (NGNs), 104,
108–11, 198, 224
NGA. See next-generation access (NGA)
NGNs. See next-generation networks
(NGNs)
Nigeria
and backbone networks, 213, 217
income spent on mobile service, 175,
190n19
international connectivity market in,
112–13
Broadband Strategies Handbook
mobile health services in, 17b1.3
network-sharing agreements, 57–58
Nigerian Communications Commission
(NCC), 112–13
NITEL, 112–13
Norma, Moldova, 307b7.4
North Atlantic Treaty Organization, 318
Norway, 218, 236
NPV. See net present value (NPV)
O
O2, 120
OBA. See output-based aid (OBA)
OECD. See Organisation for Economic
Co-operation and Development
(OECD)
OFDM. See Orthogonal Frequency Division
Multiplexing (OFDM)
OLCP. See One Laptop per Child (OLCP)
Initiative
Oman, weblink to national broadband
plans, 335
One Laptop per Child (OLCP) Initiative,
263
online content. See content
online service providers (OSPs), 141
online transactions, 147n40, 324, 329
Openreach, 123
open-source technologies, 282–83, 284
operating rights, 176
optical network units, 228
Orange, 120, 307b7.4
Organisation for Economic Co-operation
and Development (OECD)
and costs of backbone networks, 216–17
and e-government services, 273
initiatives to promote broadband
investment, 65
network coverage data, 77
and privacy issues, 138, 146n35
as source of statistics, 84
subscription definition, 78
Orthogonal Frequency Division
Multiplexing (OFDM), 228–29, 236
OSPs. See online service providers (OSPs)
output-based aid (OBA), 181, 191n25
P
Pacific region. See East Asia and Pacific
region
Packet One Networks, 237
packet-switched transmission, 230, 232t5.4
Pakistan, 217, 311–12
Index
Partnership on Measuring ICTs for
Development, 76, 86n17
Pashto language, 289n43
passive optical network (PON), 228
passive sharing of infrastructure, 119–21
patents, protection of, 143
pay-as-you-go pricing, 324
pay or play mechanisms, 190n15
pay phones, 175
PDAs. See personal digital assistants
(PDAs)
peering and transit arrangements, 108–10,
144n15, 197, 207–8, 210
peer-to-peer technologies, 142, 270
penetration rates, 5–8
Chile, 310
growth of, 19
link to employment rate, 10
mobile devices, 263–64
See also subscriptions
personal computers (PCs), 141
afordability of, 261–63, 265b6.5
for promoting digital literacy, 264b6.5
shipments in, 21
personal digital assistants (PDAs), 248
personally identifiable information
(PII), 136
Peru, 104, 165, 166–67b4.3, 184
Pew Internet American Life Project,
259–60
Pew Research Center, 286n2
Philippines, 164
PII. See personally identifiable
information (PII)
pilot projects, 49
funding for in Canada, 178–79
for universal service in Mongolia, 173b4.4
ping time, Bahrain, 81f2.7, 240
See also latency times
PLMNs. See public land mobile networks
(PLMNs)
points of presence (POPs), 183, 186b4.7,
209–10
Point-Topic, 301
point-to-point connections, 203, 204, 219,
227–28
policies and policy making, 110
for applications and content, 344–45tB.3
and backbone networks, 217
and converged networks and services,
92–93
and economic justification of fiscal
support, 66–69, 85nn9
365
policies and policy making (continued)
elements of in select countries, 53t2.2
to enable supply chain, 55–56
for e-services, 274–75
and fair use policies, 239–40
by government to drive access, 30,
163–67
implementation of, 46, 48
to improve wireless broadband, 118–19
including other sectors of economy and
society, 62–63
for infrastructure, 52, 54–59, 60t2.3,
85n6, 120–21, 338–42tB.1
national focal point for, 49–51
for net neutrality, 125–27
research mechanisms to track progress
of, 48–49
role of government in, 30
South Asia, 312, 313t7.1
for spectrum, 100–101, 118–19
stakeholders input, 45–46
for supply and demand concerns, 51–52,
53t2.2
and UASFs, 183–84
for users, 346–47tB.4
See also development of broadband
PON. See passive optical network (PON)
POPs. See points of presence (POPs)
ports, LLDCs distance from, 316
Portugal, 101, 164b6.5, 277
postconflict countries, broadband
development in, 317–18, 331nn21–22
poverty reduction, 296–97
PPIAF. See Private-Public Infrastructure
Advisory Facility (PPIAF),
World Bank
prices
for access, 111
as barrier to broadband use, 260
for bundled services, 272
of devices, 262b6.4
entry-level, 82
of hardware, 262b6.4
of landing stations, 207
measurement of, 76, 77f2.4, 81–82, 83t2.6
for mobile broadband in select countries,
82, 83t2.6
pay-as-you-go pricing, 324
for VoB, 271
for wireline broadband in select
countries, 82, 83t2.6
privacy, 134–38, 145–46nn30–32,
146nn35–37
366
and digital literacy, 258
of patient health information, 277,
288n31
privacy by design, 136
Private-Public Infrastructure Advisory
Facility (PPIAF), World Bank, 181
private sector, 157
and competition for subsidies, 177
as driver of broadband development,
52, 164
investments in broadband, 2, 42, 64–65
investments in ICTs, 318
involvement in building infrastructure,
52, 54
and universal access, 169–71
product development, impact of broadband
on, 12–13
productivity, and use of broadband, 27,
31n14
PSTN-PLMN model, 109–10
PSTNs. See public switched telephone
networks (PSTNs)
PTT Srbija, 115
public goods, 39, 84–85n1
public land mobile networks (PLMNs), 108,
109–10
public-private partnerships (PPPs), 67,
188, 314
as approach to broadband development,
71–72, 306
for international connectivity, 209
in LDCs, 315
in LLDCs, 316
for mobile health care, 17b1.3
public Internet access centers, 255, 257
and universal access, 169
public sector
and e-government services, 273
role in promotion of broadband, 38–44,
84–85nn1–2
support for broadband, 157–58
public switched telephone networks
(PSTNs), 108, 109–10, 222
Q
quality of service, 239–40
measurement of, 76, 77f2.4, 79–81, 87n20
sacrificed for price, 327
Qatar, 71
R
radio access network (RAN), 120
radio environment, 98
Broadband Strategies Handbook
radio frequency identification (RFID),
259b6.3
railway companies, 115, 217–18
RAN. See radio access network (RAN)
RCIP. See Regional Communications
Infrastructure Program (RCIP)
R&D. See research and development (R&D)
redundancy, 210, 211b5.1
refarming activities, 103–4
refurbished computers, 262b6.4
Regional Communications Infrastructure
Program (RCIP), 182b4.5
regulatory framework, 65, 271, 272
and charging arrangements, 108–11
content issues, 138–43, 146–47nn39–40
and cybersecurity, 129–34
EC’s guidelines for NGAs, 170–71
and functional separation, 58–59
and infrastructure, 56–57, 111, 119–21,
145n21
and Internet interconnections, 106–7
for ITC environment, 91–92
and network neutrality, 125–29
Peru, 166–67b4.3
privacy and data protection, 134–38,
145–46nn30–32, 146nn35–37
and statistics used for monitoring
broadband, 82–84
and universal access, 167–69, 190n15
and vertical integration, 121–24
See also legal framework; licensing;
spectrum
relief eforts, 282
remote areas, and satellite use, 238, 243n44
research and development (R&D)
impacts of broadband on, 12–13
and pilot projects, 49
to track progress of plans, 48–49
retail sector, impact of broadband on, 14–15
RFID. See radio frequency identification
(RFID)
rights-of-way, access to, 58, 115, 170
ring networks, 219, 220f5.7, 227
risks, 67, 178, 216
roaming, 78, 233
Romania, 300
Royal Dutch Telecom (KPN), 200
Rudd, Kevin, 71
rural areas
access to broadband service, 159–60, 169
Canada, 178–79, 190n21
Chile, 162–63
Dominican Republic, 160–61, 189n9
Index
Peru, 165
United States, 161
and backhaul networks, 116
Brazil, 322
and costs of backbone networks, 217
demand for broadband services, 175
and digital dividend spectrum, 103
and e-health, 276–77
Sri Lanka, 326
and subsidy bids for broadband
projects, 176
and UAS issues, 167, 168–69
and use of CDMA, 232b5.2
use of mobile education labs in, 16
and use of USFs, 73–74
Vietnam, 329
Rural Communications Development Fund
(RCDF), Uganda, 186b4.7
Russian Federation, 19
Rwanda, 17, 71, 316
S
SAT3/SAFE. See South Atlantic 3/South
Africa Far East (SAT3/SAFE) cable
SAT-3/WASC. See South Atlantic 3/West
Africa Submarine Cable (SAT-3/
WASC)
satellite networks and technologies, 71, 72,
144n16, 202–3, 238, 243n44
and backbone networks, 214
Maldives, 211b5.1
Middle East and North Africa region, 310
in postconflict countries, 318
SBO. See services-based operators (SBO)
Scalable Orthogonal Frequency Division
Multiple Access (SOFDMA), 235
SC-FDMA. See Single Carrier-Frequency
Division Multiple Access
(SC-FDMA)
SEACOM. See Southern and East Africa
Cable System (SEACOM)
security
of CII, 130–31
in cyberspace, 129–34, 145n29
and digital literacy, 258
of patient health information, 277, 288n31
self-study, 250
SENA. See Servicio Nacional de
Aprendizaje (SENA), Colombia
SE-NE-WE. See South East Asia-Middle
East-West Europe (SE-ME-WE)
network
Serbian Railways, 115
367
service contracts, 265–66, 287n20
service delivery, 46t2.1, 124–25
service exports, 15
service neutrality, 93–94
services, broadband enabled, 342, 346
to drive demand, 269–78
as driver of demand, 22–24, 26
improving availability of, 40
policies and programs to promote,
342–43tB.2
services-based operators (SBO), 95
services sector, impact of broadband on,
14–15
Servicio Nacional de Aprendizaje (SENA),
Colombia, 254
ShooFeeTV, 311
short message service (SMS), 277
SIDA. See Swedish International
Development Agency (SIDA)
SIDS. See small island developing states
(SIDS)
Singapore, 15, 50
e-government services, 19
international connectivity, 207
latency parameters in, 81
multiservice licensing, 95–96
and NBN, 218
weblink to national broadband plan, 335
Single Carrier-Frequency Division Multiple
Access (SC-FDMA), 236
single-window facilities, 269
SingTel, 122
skills, and ICT, 249–51, 257–58, 286n5
SLCERT. See Sri Lanka computer
emergency response team
(SLCERT)
Slideshare, 282
small and medium enterprises (SMEs),
61–62, 316–17
broadband as factor in growth, 295
connectivity issues, 208, 307b7.4
and digital literacy, 258–59
Netherlands, 259
small island developing states (SIDS),
54–55, 85n6, 208, 316–17
access to submarine cables, 113, 206
and satellite technology, 144n16
smartphones, 98, 237, 238, 262b6.4, 263–67,
287n20
Smart Telecom, Indonesia, 230
SMS. See short message service (SMS)
social collaboration tools, 281–82
social media, 139, 279, 280, 286
368
social networking, 139
as driver of demand, 23b1.4, 279–81,
288n38
and local content, 280–81
Middle East and North Africa, 311
mobility as key component of, 280
and privacy issues, 137
rise of, 278
Turkey, 328
See also Facebook; Twitter
SOFDMA. See Scalable Orthogonal
Frequency Division Multiple Access
(SOFDMA)
Softbank, Japan, 303–4b7.3
SONET/SDH. See Synchronous Optical
Network/Synchronous Digital
Hierarchy (SONET/SDH)
South Africa
backhaul networks, 115
Broadband Policy, 314
bundled products, 266
impact of broadband on economic
growth of, 7–8b1.1
and ISP liability, 141
weblink to national broadband plan, 336
South Asia, 311–12, 313t7.1
South Atlantic 3/South Africa Far East
(SAT3/SAFE) cable, 314
South Atlantic 3/West Africa Submarine
Cable (SAT-3/WASC), 113b3.3
South East Asia-Middle East-West Europe
(SE-ME-WE) network, 211b5.1
Southern and East Africa Cable System
(SEACOM), 54, 314
Spain, 72
spectrum, 311, 319, 324
allocation and assignment of, 98–100, 118
authorizations for, 93
availability of, 240–41, 326
and digital dividend, 103–4, 105b3.1
flexible-use technical and service rules
for, 97–98
investment in, 300
licensing, 97, 100–103, 143n7, 144n9,
144n11
overview of management of, 96
and policies to improve broadband,
100–101, 118–19
refarming process, 103–4
sale of, 67
speeds, 3, 11, 21, 228, 270
advertised versus actual, 239
average speed in 10 countries, 22f1.4
Broadband Strategies Handbook
in Bahrain, 80, 81f2.7, 240
CDMA, 230, 232b5.2
of DSL, 223–24
EDGE, 229–30
EV-DO, 232t5.4
with fiber optic cables, 201–2
of FTTP, 226, 228
GPRS, 230, 243nn30–31
HSPA, 234
local access networks, 197
LTE, 236
microwave systems, 204
new entrants, 303–5b7.3
satellite technology, 202, 238
using cable modem, 225–26
W-CDMA networks, 234
Wi-Fi, 237
WiMAX, 235
WirelessMAN-Advanced, 236
spot beams, 203
Sri Lanka, 15, 131b3.4, 318
approach to computer literacy, 252–53
broadband development, 312, 319f7.6,
321t7.2, 326–27
incentives to extend backbone
networks, 217
Sri Lanka computer emergency response
team (SLCERT), 131b3.4
Sri Lanka Telecom, 209–10
stakeholders, input on plans and policies
for broadband, 45–46
Starnet, Moldova, 304b7.3, 307b7.4
state aid, 69, 70b2.4
statistics, for monitoring broadband, 82–84
St. Kitts and Nevis, 310, 319f7.6, 321t7.2,
325–26
strategies. See policies and policy making
structural separation, 123–24, 218
submarine cable network, 72, 205–7,
241n10, 314, 326
for connectivity, 322–23
investment in, 85n6
for LLDCs, 316
monopoly control of, 112–13
Sub-Saharan Africa
backbone services in, 114, 213
broadband development in, 181, 312–14
cost of devices relative to GDP, 261,
263f6.4
See also Africa; specific country
subscriptions, 78, 270–71
active versus inactive data, 78
Brazil, 318
Index
cable modem, 305
CATV, 312
connectivity relative to infrastructure,
300–301
in emerging economies, 301–2
Kenya, 81, 323
in Latin America and Caribbean, 308
measurement of, 78–79
mobile, 19–20, 305
Morocco, 324
St. Kitts and Nevis, 325
Turkey, 327
TV as part of, 271–72
wireless, 20–21, 78–79, 296f7.1
wireline, 19–20, 221–22, 296f7.1,
299, 305
Subsecretaria de Telecomunicaciones
(SUBTEL), Chile, 127, 184
subsidies, 72
for broadband initiatives, 67, 74–75,
162b4.2
competition for, 172–78, 190n20
for computers in China, 264b6.5
as instrument of fiscal support, 171–78,
190nn17–19
for mobile devices, 265–66, 287n20
to overcome obstacles to afordability,
260–61
to purchase devices, 261, 263
for rural pay phones, 175
and service costs, 267, 288n23
supply chain
bottlenecks in, 55–56, 112–19, 144n6
components of, 196–98
connections to small towns and
villages, 218
management of with broadband, 15
See also backbone networks; vertical
integration
supply-side components, 39, 84
and competition for subsidies, 174,
175t4.3, 176–77, 190n20
in East Asia and Pacific region, 303–5
and elements of ecosystem, 25
infrastructure to promote supply, 52,
54–59, 60t2.3, 85n6
in Latin America and Caribbean region,
308–10
in LDCs, 315, 331n15
in LLDCs, 316
measurement of, 76–77
policies for, 51–52, 53t2.2, 60t2.3,
320–21t7.2
369
supply-side components (continued)
reaching unserved and underserved
users, 40
in SIDs, 317
in Sub-Saharan Africa, 312, 314
trends in, 20–22
and universal access, 169–71
See also applications; demand-side
components
Sweden, 48, 49
absorptive capacity of broadband in,
29b1.5
and CDMA, 230, 232b5.2
computer purchase plans, 261, 263
Internet security, 258
and LTE deployment, 236
open-access networks, 168
peering arrangements, 208
Swedish International Development
Agency (SIDA), 255t6.1, 340
Switzerland, 169, 272, 273b6.2
symmetrical speeds, 228
synchronous, 234
Synchronous Optical Network/
Synchronous Digital Hierarchy
(SONET/SDH), 219
T
tablets, 263–67, 287n20
Tajikistan, 307–8
Tanzania, 94, 316
tarif indicators, 82
Tata Communications, India, 208
taxation
for broadband development, 170, 261
and mandatory contributions, 180
tax holidays, 86n15
TDD. See Time Division Duplexing (TDD)
TDF. See Telecommunications
Development Fund (TDF)
TD-SCDMA. See Time DivisionSynchronous Code Division Multiple
Access (TD-SCDMA)
TEAMS. See East African Marine System
(TEAMS)
technical support, 14
technologies for connectivity, 201–5
technology neutrality, 93–94, 118
Telcom Italia, 304b7.3
Telebras, Brazil, 322
telecenters, Sri Lanka, 326
Telecom, Korea, 303b7.3
Telecommunications Development Fund
(TDF), 166b4.3, 313t7.1
370
telecommunications operators, 72, 160, 165,
179–80, 191n23
Telecommunications Regulatory Authority
of India (TRAI), 116, 120, 312
Telecommunications Regulatory Authority
(TRA), Bahrain, 240
Telecommunications Service Providers
Association (TESPOK), 107b3.2
Telekom Malaysia, 47b2.2, 306
telemedicine systems, 16–17, 18t1.2, 277
telephone
and PSTN lines, 222, 223
and VoB service, 271
television (TV), 92, 299
digital terrestrial television, 103–4,
105b3.1
as part of subscription, 271–72
by satellite, 203
TeliaSonera, Sweden, 208, 236
Telkom, 266, 305
Telkom Kenya, 107b3.2
Telmex, Mexico, 232b5.2
TelOne, Zimbabwe, 211
Telstra, Australia, 124
terminal equipment, 248
termination rates and fees, 110–11, 265
TESPOK. See Telecommunications Service
Providers Association (TESPOK)
third-generation (3G) mobile
telecommunications systems, 230
China, 234, 235b5.3
Morocco, 96
Sri Lanka, 326
subscriptions, 19
3G Partnership Project, 236
throttling, 124, 270–71
Tier 1 carriers, 208, 209f5.4
Time Division Duplexing (TDD), 234, 236
Time Division-Synchronous Code
Division Multiple Access
(TD-SCDMA), 234
Time Warner, 92
T-Mobile, 120
towers, mobile towers, 120
trademarks, protection of, 143
trading, of spectrum, 100, 119
traic management, 126, 129
training for ICTs, 15–16, 250–51
advanced ICT training, 257–58
e-education services, 254
in privacy and security issues, 258
TRAI. See Telecommunications Regulatory
Authority of India (TRAI)
transit arrangements, 208
Broadband Strategies Handbook
transparency
and accounting methods, 58–59
in data collection, 136–37
as factor in competition for subsidies, 177
of ISPs, 125
in spectrum allocation, 100
of traic management policies, 126–27,
128
for UASFs, 183, 185, 187
TRA. See Telecommunications Regulatory
Authority (TRA), Bahrain
Tribal Digital Village, 286n3
Triple Network project, China, 305
triple-play ofers, 200
tromboning, 104, 106
Tunisia, 311
Turkey, 82
access to broadband, 308
broadband strategies in, 47b2.2, 319f7.6,
321f7.2, 327–28
broadband subscriptions, 78–79, 80f2.6
public Internet access centers, 255, 257
Turkish Information Communications and
Technology Authority, 78–79, 80f2.6
Turk Telecom, 255, 257
TV. See television (TV)
Twitter, 139, 280, 311
U
UAF. See Universal Access Fund (UAF)
Company, Jamaica
UASFs. See Universal Access and Service
Funds (UASFs)
UAS. See universal access and service
(UAS)
Uganda, 186b4.7, 210, 217
ULL. See unbundled local loop (ULL)
UMTS. See Universal Mobile
Telecommunications System (UMTS)
networks
unbundled local loop (ULL), 303–4b7.3
UNCTAD. See United Nations Conference
on Trade and Development
(UNCTAD)
underserved areas, 39, 169, 184, 344, 346
and broadband promotion, 40, 44, 54,
62t2.4, 166–67b4.3
Canada, 158–59
European Union, 70b2.4
government interventions for, 71
incentives to extend fiber optic cable
to, 217
local connectivity for, 116
See also rural areas
Index
unified authorizations, 94–95
United Kingdom, 258
advertised versus actual speeds in, 239f5.13
broadband development issues, 49,
69–70, 165, 167
and functional separation, 123
and infrastructure sharing, 120
pilot projects in, 49
television service in, 272
United Nations, Human Rights Council, 139
United Nations Conference on Trade and
Development (UNCTAD), 316
United Nations Development Programme,
Human Development Index, 301–2
United States, 10, 81, 104, 105
banking online, 277
Commerce Department, 259–60
data privacy protection, 135
DMCA, 141
e-government services, 19, 274, 275
Federal Communications Commission,
87n20, 110, 128, 186b4.6
Federal Trade Commission, 135, 136
and LTE deployment, 236
National Broadband Plan, 99, 110, 160,
161, 259, 336
online gambling, 140
reasons for not adopting Internet in,
41–42, 85n2
reform of USF in, 186b4.6
and satellite technology, 243n44
subsidies for mobile devices, 265
use of BAK, 108
use of USFs, 73–74
weblink to national broadband plan, 336
Universal Access and Service Funds
(UASFs), 163, 179–85, 186, 187, 188,
191n23
universal access and service (UAS), 160–63,
167–68
mechanisms to drive support for
build-out, 169–71
Mongolia, 173b4.4
review of funds to programs, 187–88
subsidies for fiscal support for, 171–78,
190nn17–19
Universal Access Fund (UAF) Company,
Jamaica, 160
universal broadband access, 155
in Latin America and Caribbean, 309–10
levels of, 158–60
mechanisms to drive, 163–69, 190n15
overview, 156–63, 189n1, 189n9
strategies for, 160–65, 167–68, 189n9
371
universal mobile service, 317
Universal Mobile Telecommunications
System (UMTS) networks, 232b5.2,
233–34
Universal Service Bus (USB), 265, 266b6.6
universal service funds (USFs), 73–74
Brazil, 322
Mongolia, 181
Pakistan, 312
to subsidize fiber optic rollout, 217
to support broadband, 159–60
United States, 186b4.6
Universal Service Obligation Fund (USOF),
India, 160, 169
universal service obligations (USOs), 158
Uruguay, 263
USB. See Universal Service Bus (USB)
users
as generators of video, 278, 279, 280
policies and procedures for, 346–47tB.4
USFs. See universal service funds (USFs)
USOF. See Universal Service Obligation
Fund (USOF), India
utilities, to act as bandwidth providers,
217–18
Uzbekistan, 307–8
V
VDSL. See very high-speed digital
subscriber line (VDSL)
Ventelo, Norway, 218
Verizon, 236
vertical integration, 121–24, 145n23
very high-speed digital subscriber line
(VDSL), 223–24
very small aperture terminals
(VSAT), 203
video games, 278
video on demand (VoD) services, 271–72
video services, 271–72
as driver of demand, 23b1.4, 270
for health care, 278
user generation of videos, 278, 279, 280
videos generated in specific languages,
285–86
Vietnam, 82, 306, 319f7.6, 320t7.2, 328–30
virtual coastlines, 316
virtual learning environment (VLE),
282–83
virtual online courses, 254
Vision service, United Kingdom, 272
VLE. See virtual learning environment
(VLE)
372
VoB. See voice over broadband (VoB)
service
Vodacom, 266
Vodafone, 120
VoD. See video on demand (VoD) services
voice over broadband (VoB) service, 271
voice over Internet Protocol (VoIP), 125,
129, 200
voice telephony, 73, 125, 271
VoIP. See voice over Internet Protocol
(VoIP)
VSAT. See very small aperture terminals
(VSAT)
W
Wana, Morocco, 304–5b7.3
WARF Telecom International, 211b5.1
Wavelength Division Multiplexing
(WDM), 219
W-CDMA. See Wideband CDMA
(W-CDMA)
W-CDMA. See Wideband Code Division
Multiple Access (W-CDMA)
WDM. See Wavelength Division
Multiplexing (WDM)
Web2.0, 139
applications for businesses and
institutions, 282
and crowdsourcing, 281–82
as driver of demand, 23b1.4, 279
and school connectivity programs,
282–83
websites
blocking of, 128
for broadband statistics, 84
dig.com, 286
fraudulent, 131b3.4
KidSMART, 258
mashup websites, 281
for national broadband plans, 335–36
for social networking, 23b1.4, 137, 139
See also Facebook; Twitter
WiBro, Korea, 235
Wideband CDMA (W-CDMA), 233–34,
235b5.3
Wideband Code Division Multiple Access
(W-CDMA), 198
WiFi. See Wireless Fidelity (WiFi)
technologies
Wikipedia, 281
WiMAX. See Worldwide Interoperability
for Microwave Access (WiMAX)
Wireless@KL, Malaysia, 237
Broadband Strategies Handbook
wireless access technologies, 229–38,
243nn30–31
wireless broadband, 117–19, 300
Australia, 71
Brazil, 319
increase in users of, 19, 98
in LDCs, 315
Morocco, 304–5b7.3, 311
See also mobile broadband services
Wireless Fidelity (WiFi) technologies,
17b1.3, 72, 237–38, 243n42
privacy issues, 134, 145–46n30
and spectrum, 240
and use of unlicensed spectrum, 102–3
WirelessMAN-Advanced, 236
wireline broadband services, 116–17, 299
Brazil, 318
contrasted with mobile services, 128–29
infrastructure for, 299–302
and local connectivity, 221–29
and right-of-way, 58
and shared infrastructure, 121
South Asia, 311–12
Vietnam, 329
wireline broadband subscriptions, 19–20
Australia, 71
in emerging economies, 301–2
Index
Indonesia, 305
measurement of, 78–79
prices for in select countries, 82, 83t2.6
wireline telephones, 157, 300, 310
World Bank, 31n14, 323, 326
Private-Public Infrastructure Advisory
Facility (PPIAF), 181
study linking GDP and broadband
penetration, 5–6
study on broadband in Korea, 163
UAS study, 168
World Health Organization, 190n18
World Summit on the Information Society
(WSIS), 296, 297–98
World Trade Organization, 140
Worldwide Interoperability for Microwave
Access (WiMAX), 17b1.3, 47b2.2, 204,
234–35
WSIS. See World Summit on the
Information Society (WSIS)
Y
Yahoo! Inc., 147n40
YouTube, 279, 280, 282, 285–86
Z
Zimbabwe, 211
373
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T
he world is shifting from narrowband to broadband. Services that were only
available in the form of static, text-based websites a decade ago are now ofered
in full-motion, high-definition video. A whole new generation of Internet
entrepreneurs is ready to take its ideas to the stock market.
Nevertheless, a gap remains between the developed and the developing worlds when it
comes to broadband. The digital divide that was once measured in terms of diferences in
access to communications is now measured in terms of diferences in quality of access. Slow
speeds for download translate into lost economic opportunities. The evidence seems to
suggest that, where broadband is available in developing countries, it is a major contributor
to economic growth. The developing world has adopted mobile phones much more readily
than tethered ones, so as mobile broadband becomes more readily available, a further boost
to growth can be expected. In line with this growth, the United Nations recently declared
that broadband access is a basic human right.
A decade ago, infoDev and the World Bank’s Information and Communication Technology
Sector Unit joined forces with the International Telecommunication Union to develop
the Telecommunication Regulation Handbook, a bestseller that was updated and reissued
in 2010.
Broadband Strategies Handbook is intended as a next-generation tool for policy makers,
regulators, and other relevant stakeholders as they address issues related to broadband
development. It aims to help readers, particularly those in developing countries, in
identifying issues and challenges in broadband development, analyzing potential solutions
to consider, and providing practical examples from countries that have addressed broadband-related matters. It goes beyond the regulatory issues and looks more broadly at the
challenges of promoting and universalizing broadband access. It will also form the basis
for a toolkit—http://www.broadband-toolkit.org—that complements other toolkits and
technical assistance guides available from the World Bank Group. Consider this handbook
as a living resource that will grow as the broadband market worldwide grows.
Korean Trust Fund
ISBN 978-0-8213-8945-4
SKU 18945