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Geographic information system for mapping public service location

2019, Journal of Physics: Conference Series

This article aims to analyze, design, and development public service location mapping system based on Geographic Information System (GIS). GIS technology is a useful information system used in making information systems for mapping areas and locations accurately so that it can make it easier for people to obtain information on the distribution of places of public services and facilitate the path to the site. Data used is sourced from external data and observational data in the field. The software development model uses the Rapid Application Development approach which consists of four phases namely, planning requirements, user design, construction, and cutover. The results of this study are applications for mapping the location of public services that have features of fast search, geo-maps, know the nearest public service, add data by users with the login feature via social media, and features easy access via Android smartphone. With the development of this application, hoped that it...

Journal of Physics: Conference Series You may also like PAPER • OPEN ACCESS Geographic information system for mapping public service location To cite this article: D Kurniadi et al 2019 J. Phys.: Conf. Ser. 1402 022073 View the article online for updates and enhancements. - Development of general transportation applications in Garut City web-based D Nurdiana, M Fajar, D Rahadian et al. - Web-based geographic information system for mapping religious tourism object A D Supriatna, D Tresnawati, D Kurniadi et al. - Confusion around e-ID Card Service, Public Obligation versus Public Service I Kania, D T Alamanda, G Anggadwita et al. This content was downloaded from IP address 3.89.191.223 on 23/10/2022 at 09:56 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 IOP Publishing doi:10.1088/1742-6596/1402/2/022073 Geographic information system for mapping public service location D Kurniadi1, *, A Mulyani1, Y Septiana1 and G G Akbar2 1 Department of Informatics, Sekolah Tinggi Teknologi Garut, Jalan Mayor Syamsu 1, Garut, Indonesia 2 Department of Public Administration, Universitas Garut, Jalan Raya Samarang 52 A, Garut, Indonesia *dede.kurniadi@sttgarut.ac.id Abstract. This article aims to analyze, design, and development public service location mapping system based on Geographic Information System (GIS). GIS technology is a useful information system used in making information systems for mapping areas and locations accurately so that it can make it easier for people to obtain information on the distribution of places of public services and facilitate the path to the site. Data used is sourced from external data and observational data in the field. The software development model uses the Rapid Application Development approach which consists of four phases namely, planning requirements, user design, construction, and cutover. The results of this study are applications for mapping the location of public services that have features of fast search, geo-maps, know the nearest public service, add data by users with the login feature via social media, and features easy access via Android smartphone. With the development of this application, hoped that it could provide benefits to facilitate and accelerate the community towards the location of public services without being limited by space and time. 1. Introduction Public services are all forms of services, which in principle are the responsibility and carried out by government agencies or the private sector, in the context of efforts to meet the needs of the community and in the context of implementing the provisions of legislation [1]. If you see the culture of the city beforehand to obtain information on public service places, it is generally easy to get it based on recommendations and ask people who know the area, but in this way, it is only limited to certain people, and sometimes the information provided is not accurate. Geographic Information System (GIS) is a specialized information system that manages data that has spatial information [2], while in a narrow sense GIS is a computer system that can build, store, manage and deliver information referring to geography in a database [3]. With the advancement of GIS technology combined with internet technology and mobile devices such as Android smartphones with Global Positioning System (GPS) features, it will undoubtedly make it easier for people to get to the location of public services, and indirectly change the culture of society to get information and public services quickly. Research work related to the application of GIS technology both web-based and mobile-GIS in various fields have been carried out such as, GIS application for reforming space and the area of Content from this work may be used under the terms of the Creative Commons Attribution 3.0 licence. Any further distribution of this work must maintain attribution to the author(s) and the title of the work, journal citation and DOI. Published under licence by IOP Publishing Ltd 1 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 IOP Publishing doi:10.1088/1742-6596/1402/2/022073 government city [4], mobile GIS application for inventory [5], volunteered GIS for public lands management [6,7], mapping the handling of disaster locations [8–10], Android, GIS and Web Base Project [11,12], even to the implementation of GIS applications for mapping service locations for pregnant women [13]. Based on the previous work it was concluded that GIS technology is a useful information system used in making information systems for mapping regions and locations accurately, especially for mapping the distribution of public service locations, so that it can facilitate the public to obtain information on the site of public services and facilitate the route to the place. This article aims to analyze, design, and development public service location mapping system based on Geographic Information System (GIS) with a system development method using Rapid Application Development. The data needs of the public service location used in the application development work are sourced from external data and field observation data, with the limitation of only the data public service location in the province of West Java, Indonesia. The benefits generated from this work are software applications to make it easier for people to reach out and obtain information on public service places quickly. 2. Method To achieve the goal of designing a Geographic information system for mapping public service location, the process is carried out based on the activity stages in figure 1. Figure 1. Conceptual framework. 2.1. Data collection The process of collecting public service location data is carried out with two events, namely, data collection using field studies as primary data and literature studies as secondary data. Field studies in the form of observations to places or public service institutions to obtain actual data, in this case for data collection needs are limited to only public service locations in the province of West Java, Indonesia. Literature studies include data collection by studying various reference sources related to research. 2.2. System development The approach to developing geographic information system software uses the 4 phases of the Rapid Application Development (RAD) model introduced by James Martin as in figure 2 [14]. Figure 2. Rapid application development. In the RAD method several stages must be passed such as analysis, design, construction, and final testing stages [15,16]. To simplify understanding, these steps can be divided into several processes included in all RAD models, namely business modeling, modeling data, process modeling, application generation, 2 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 IOP Publishing doi:10.1088/1742-6596/1402/2/022073 testing and turnover [17]. If the needs are well understood, the process of developing software methods allows the development team to create a functional system that is intact in a short period (60-90 days). 3. Result and discussion 3.1. Requirements planning The scope of this public service location mapping system emphasizes on the location of public services based on various categories of information and sites of primary and secondary public services [4]. The types include government institutions, law enforcement institutions such as police stations, health institutions such as hospitals and health centers, Educational institutions such as schools and universities, banking institutions, places of worship, and other public institutions in the province of West Java, Indonesia. From the public service category, there is a geo-map from an object of public service that will display information and directions for users to facilitate the path to the location based on the geolocation of users to public service locations. 3.1.1. Problem analysis. Along with the advancement of mobile devices technology, one of the information that is often needed by the public is informed about the place of public service. Then we need a system that can support the ease of getting information anywhere and anytime. To overcome the problem that what is required by the community is to make it easier to get information on public services and directions to that location, then the system designed is made based on Geographic Information System (GIS) and Android smartphone in the hope of helping the wider community to get information quickly. 3.1.2. Functional requirement. There are two types of users in the Geographic information system for mapping public service locations, namely administrators and users. The role of the Administrator is to manage data on the site of public service objects from data collected with a Web-based interface. The part of the User to find out / find the place of public service to be visited with an Android smartphonebased interface. The data presented is in the form of geo-maps, information on where public services are equipped with pictures, knowing the nearest public service place, displaying the route of travel from the user's location to the destination location, and adding data by the user with the login feature via social media. 3.1.3. Non-functional requirement.       Showing categories of public service places; Geo-maps displays the location of the nearest public service when the user opens the application based on the user's Global Positioning System (GPS) position, by presenting information using the Application Programming Interface (API) map from Google Maps; Displays public service places in the form of location maps along with related information; Display the route of travel from the location of the user who first accessed the system to the destination location with GPS tracking; Conducting a search process for the place of public services to be visited; Allows the User to propose additional location data for public services which will be validated by the Administrator, by first logging in using a social media account; 3.2. User design In this phase, the architecture of the application system needs for the solution to be approved include the components required by the system. User Data is the management of user data systems. Public Service Location Data is a data management place for public services. Access Right is the right of access to the system for each user, each user who will access the order can only be done according to the features possessed by each - each part. After determining the components of the system that will be 3 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 IOP Publishing doi:10.1088/1742-6596/1402/2/022073 made the next activity to do system design includes, business modeling using flow map, modeling data using ER Diagrams, and modeling processes using Data Flow Diagrams. 3.3. Construction In this phase, programming and application development work using IDE Android Studio tools, Adobe Dreamweaver, and Apache Web Server, while the programming languages are Hypertext Preprocessor (PHP), Java, and JavaScript, and data storage with MySQL databases. 3.3.1. Menu structure for administrators and user. Table 1. Main menu structure for administrators and user. Administrator User Login Data User Data Public Service Location  Add Data  Delete Data  Update Data  Search Data  Validation User Data Help Home Public Service Category Search and Navigation Share Location Login via Social Media  Add Location  Delete User Location History Help 3.3.2. Table and attributes. Table 2. List of table and attributes. Table Names User Category Data Location Data Dictionary id, name, username, password, active id. icon, name id, name, address, idcategory, dayopen, dayclose, opentime, closetime, telp1, telp2, owners, latitude, longitude, foto, active 3.3.3. Interface for administrator. Some web-based interface designs for administrators: Figure 3. Master data for administrator. Figure 4. Add data public service location. 4 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 IOP Publishing doi:10.1088/1742-6596/1402/2/022073 3.3.4. Application prototype. Some examples of application implementation for Users in Android smartphone: Figure 5. Application implementation for users in the android smartphone. 3.4. Cutover (evaluation and testing) In this phase, the evaluation and testing are done first from the prototype application before the application can be used. Testing application functionality using the black-box testing method. Testing includes input, process, and output so that the app works as expected. For further system development with enhanced features, sufficient effort is needed in the development of software projects starting from the estimation of development costs, time and resources, one way to make an effort to estimate future software development projects is to use the UCP approach [18,19]. 4. Conclusion Based on the results of the discussion of the Geographic Information System based mapping system, public services can help people find information, contact, and visit public services nearby, because it has the closest location search feature based on GPS which makes it easier to use to show the way to the location is more accurate. Another feature is search based on a place name, category, address and geomaps, and users can add new location data just by logging in using social media accounts. While based on the results of testing, the use of an Android platform-based application will further maximize the functionality from the application system mapping public services location. Acknowledgments Authors wishing to acknowledge Sekolah Tinggi Teknologi Garut that supports and funds this research publication. References [1] Cordella A and Tempini N 2015 E-government and organizational change: Reappraising the role of ICT and bureaucracy in public service delivery Gov. Inf. Q. 32 279–86 [2] Basith G and Kurniadi D 2017 Perancangan Sistem Informasi Pemetaan Pariwisata Garut Berbasis Geografic Information System dan Android J. Algoritm. 14 26–31 [3] García-Palomares J C, Gutiérrez J and Latorre M 2012 Optimizing the location of stations in bike- 5 4th Annual Applied Science and Engineering Conference Journal of Physics: Conference Series 1402 (2019) 022073 [4] [5] [6] [7] [8] [9] [10] [11] [12] [13] [14] [15] [16] [17] [18] [19] IOP Publishing doi:10.1088/1742-6596/1402/2/022073 sharing programs: A GIS approach Appl. Geogr. 35 235–46 Iskandar, Situmorang H and Adhy L 2014 On the development of thematic GIS database application platform for reforming space and area of government city/district 2014 8th International Conference on Telecommunication Systems Services and Applications (TSSA) (IEEE) pp 1–5 Sawada M, Ploeger S K, Elsabbagh A, Saatcioglu M, Rosetti E and Nastev M 2014 Integrated desktop/mobile GIS application for building inventory Brown G, Kelly M and Whitall D 2014 Which ‘public’’? Sampling effects in public participation GIS (PPGIS) and volunteered geographic information (VGI) systems for public lands management’ J. Environ. Plan. Manag. 57 190–214 Septiana Y 2018 Design of prototype decision support system for flood detection based on ultrasonic sensor MATEC Web Conf. 197 03017 Roche S, Propeck-Zimmermann E and Mericskay B 2013 GeoWeb and crisis management: issues and perspectives of volunteered geographic information GeoJournal 78 21–40 Middleton S E, Middleton L and Modafferi S 2014 Real-Time Crisis Mapping of Natural Disasters Using Social Media IEEE Intell. Syst. 29 9–17 Setiawan R, Kurniadi D and Bunyamin H 2017 Perancangan Sistem Pengelolaan Penanggulangan Bencana Alam Garut Berbasis Sistem Informasi Geografis J. Algoritm. 14(2)215–21 Saeed A, Bhatti M S, Ajmal M, Waseem A, Akbar A and Mahmood A 2013 Android, GIS and Web Base Project, Emergency Management System (EMS) Which Overcomes Quick Emergency Response Challenges (Springer, Berlin, Heidelberg) 269–78 Jeefoo P 2014 Real-Time Field Survey Using Android-Based Interface of Mobile GIS 2014 International Conference on Information Science & Applications (ICISA) (IEEE) 1–3 Ismaeel A G and Hamead N G 2014 Mobile GIS and Open Source Platform Based on Android: Technology for System Pregnant Women Martin J 1991 Rapid application development (Macmillan Publishing Co., Inc.) Septiana Y, Kurniadi D, Mulyani A and Baswardono W 2018 Design of decision support system for blood analysis MATEC Web Conf. 197 03018 Kurniadi D, Abdurachman E, Warnars H L H S and Suparta W 2018 The prediction of scholarship recipients in higher education using k-Nearest neighbor algorithm IOP Conf. Ser. Mater. Sci. Eng. 434 012039 Pressman R S 2005 Software engineering: a practitioner’s approach (Palgrave Macmillan) Kurniadi D, Mulyani A, Septiana Y and Aulawi H 2018 Estimated software measurement base on use case for online admission system IOP Conf. Ser. Mater. Sci. Eng. 434 012062 Kurniadi D, Sasmoko, Warnars H L H S and Gaol F L 2017 Software size measurement of student information terminal with use case point 2017 IEEE International Conference on Cybernetics and Computational Intelligence (CyberneticsCom) (IEEE) 164–9 6