CN101034952A - Scheduling information transmission method of E-DCH - Google Patents
Scheduling information transmission method of E-DCH Download PDFInfo
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Abstract
本发明涉及移动通信技术，公开了一种E－DCH中调度信息传输方法，使得UE在单独传输SI时能提高无线链路性能。本发明中，在UE单独传输SI时，采用根据协议的固定设定或通过相关的高层协议消息通知的阶数小于24的CRC对SI进行编码后发送给Node B，Node B则根据协议的固定设定或通过相关的高层协议消息的通知使用相同阶数的CRC检测所接收到的SI是否正确。通过在高层协议RRC、NBAP和RNSAP中添加新的IE使得相关消息能够指示UE所使用的CRC的阶数。
The invention relates to mobile communication technology, and discloses a scheduling information transmission method in E-DCH, so that UE can improve wireless link performance when transmitting SI alone. In the present invention, when the UE transmits the SI alone, the SI is encoded by a CRC whose order is less than 24 according to the fixed setting of the protocol or notified by the relevant high-level protocol message, and then sent to the Node B, and the Node B then sends it to the Node B according to the fixed setting of the protocol. It is set or notified by the relevant high-level protocol message to use the same order of CRC to detect whether the received SI is correct. By adding new IEs in the high-level protocols RRC, NBAP and RNSAP, related messages can indicate the order of the CRC used by the UE.
Description
Technology
The present invention relates to mobile communication technology, in particular E-DCH technology.
BACKGROUND
Third Generation Partnership Project (3rd Generation Partnership Project, referred to "3GPP")
As an important field of mobile communications organizations to promote the third generation mobile communication (The Third Generation,
Referred to as "3G") standardization technique, the earlier version of the protocol in order of the upstream and downstream operations
Contained are based on the dedicated channel.
With the development of mobile communication technology, 3G technology is constantly to evolve. High Speed Downlink Packet
Access (High Speed Downlink Packet Access, referred to as "HSDPA"), and High Speed Uplink stars
Group Access (High Speed Uplink Packet Access, referred to "HSUPA") is a 3G technology
An important evolution. HSDPA and HSUPA in the packet scheduling and retransmissions from the base station node
(Node B) control.
Wherein, HSDPA High Speed Downlink Packet Access as the technique was introduced in 2002 to the 3GPP
Version 5 (Release 5, referred to "R5") version, and in the 3GPP version 6 (Release 6,
Referred to as "R6") was carried out some improvements, it uses a shorter 2 milliseconds (ms) between the transmission time
Compartment (Transmission Timing Interval, abbreviated "TTI"), to achieve fast adaptive control.
In the physical layer using the adaptive coding and modulation (Adaptive Modulation and Coding, referred to
"AMC") and hybrid automatic retransmission request (Hybrid Auto Repeat reQuest, referred to as "HARQ").
In order to realize the user device (User Equipment, referred to "UE") high-speed downlink data transfer
Lose, HSDPA two new downlink physical channels and an uplink physical channel, they are used for
Carrying user data speed physical downlink shared channel (High Speed Physical Downlink
Shared Channel, referred to as "HS-PDSCH"), for carrying the accompanying data channel demodulation HS-PDSCH
Required for a high-speed downlink shared signaling control channel (High Speed Shared Control Channel,
Referred to "HS-SCCH"), as well as for carrying the UE acknowledgment / non-acknowledgment (ACK / NACK)
And a channel quality indicator (Channel Quality Indicator, referred to as "CQI") such feedback information (FBI)
The uplink dedicated physical control channel (High Speed Dedicated Physical Control Channel,
Abbreviated "HS-DPCCH"). Node B via HS-DPCCH informed whether the data is correctly received,
If not, will initiate retransmission, or send new data.
...
In order to realize the user device (User Equipment, referred to "UE") high-speed downlink data transfer
Lose, HSDPA two new downlink physical channels and an uplink physical channel, they are used for
Carrying user data speed physical downlink shared channel (High Speed Physical Downlink
Shared Channel, referred to as "HS-PDSCH"), for carrying the accompanying data channel demodulation HS-PDSCH
Required for a high-speed downlink shared signaling control channel (High Speed Shared Control Channel,
Referred to "HS-SCCH"), as well as for carrying the UE acknowledgment / non-acknowledgment (ACK / NACK)
And a channel quality indicator (Channel Quality Indicator, referred to as "CQI") such feedback information (FBI)
The uplink dedicated physical control channel (High Speed Dedicated Physical Control Channel,
Abbreviated "HS-DPCCH"). Node B via HS-DPCCH informed whether the data is correctly received,
If not, will initiate retransmission, or send new data.
...
HARQ technology combines the forward error correction code and retransmission, for the E-DCH physical layer fast retransmit,
And through the initial transmission and retransmission soft merger between the physical layer to improve decoding performance.
For high efficiency of UE uplink data transmission, E-DCH new addition of two uplink physical channels and
Three downlink physical channels, which are used to carry user data uplink E-DCH Dedicated number
According to the transport channel (E-DCH Dedicated Physical Data Channel, referred to as "E-DPDCH"),
With the physical layer signaling for transmission, provide for the E-DPDCH demodulation accompanying uplink signaling E-DCH
Dedicated Control Channel (E-DCH Dedicated Physical Control Channel, referred to
"E-DPCCH"), is used to control the transmission rate of the UE uplink E-DCH Absolute Grant Channel
(E-DCH Absolute Grant Channel, referred to as "E-AGCH") and E-DCH relative grant channel
Channel (E-DCH Relative Grant Channel, referred to as the "E-RGCH"), and for indicating the uplink
Process data is correct E-DCH retransmission indicator channel (E-DCH HARQ Indicator
Channel, referred to as the "E-HICH").
...
For high efficiency of UE uplink data transmission, E-DCH new addition of two uplink physical channels and
Three downlink physical channels, which are used to carry user data uplink E-DCH Dedicated number
According to the transport channel (E-DCH Dedicated Physical Data Channel, referred to as "E-DPDCH"),
With the physical layer signaling for transmission, provide for the E-DPDCH demodulation accompanying uplink signaling E-DCH
Dedicated Control Channel (E-DCH Dedicated Physical Control Channel, referred to
"E-DPCCH"), is used to control the transmission rate of the UE uplink E-DCH Absolute Grant Channel
(E-DCH Absolute Grant Channel, referred to as "E-AGCH") and E-DCH relative grant channel
Channel (E-DCH Relative Grant Channel, referred to as the "E-RGCH"), and for indicating the uplink
Process data is correct E-DCH retransmission indicator channel (E-DCH HARQ Indicator
Channel, referred to as the "E-HICH").
...
Specifically, RSN used to indicate the HARQ process in HARQ transmission redundancy version of each
(Redundancy Version, referred to "RV"), to represent the transport process of the state. RSN 0
The transmission is initial transmission, the transmission is not 0 retransmission are: first retransmission RSN is 1, the second retransmission
RSN is 2, then the subsequent retransmission RSN are three.
Specifically, RSN used to indicate the HARQ process in HARQ transmission redundancy version of each
(Redundancy Version, referred to "RV"), to represent the transport process of the state. RSN 0
The transmission is initial transmission, the transmission is not 0 retransmission are: first retransmission RSN is 1, the second retransmission
RSN is 2, then the subsequent retransmission RSN are three....
"Happy" bit reflects the UE for uplink packet scheduling Node B fast results "satisfactory
Degrees "on the Node B control fast uplink packet scheduling with auxiliary role. According to 3GPP specifications
TS25.321, if the UE has sufficient transmit power in the case, the total current E-DCH data sent
Send buffer data in "Happy_Bit_Delay_Condition" time in accordance with the current service
Authorization (Serving Grant, referred to "SG") but can not complete the send, it will "Happy" bit
Is set to "Unhappy"; or "Happy" bit is set to "Happy".
This 10-bit information via second Reed Male (Reed-Muller) code for the channel coding,
30 bits, formed, for 2ms TTI mode 30 after the encoded bits in the E-DPCCH is
A 2ms sub-frame for transmission; for 10ms TTI mode, the encoded bits after 30
In the E-DPCCH frame is a 10ms 2ms sub-frame 5 at the same time (that is repeated 5 times) pass
Lose. E-DPCCH/E-DPDCH frame format shown in Figure 1, E-DPCCH in a 10ms frame packet
With 15 slots, each time slot 3 a 2ms sub-frame, i.e. a 10ms frame includes 5 2ms
Sub-frame. The E-DPCCH slot format shown in Table 1.
| Slot Format # i # i slot format | Channel Bit Rate (kbps) Channel bit rate (one thousand Bits per second) | SF Spreading factor | Bits / Frame Bits / frame | Bits / Subframe Bits / sub-frame | Bits / Slot
Bits / |
| 0 | 15 | 256 | 150 | 30 | 10 |
Table 1
It can be seen, each slot can transmit E-DPCCH 10 bits, a sub-frame may 2ms
Transfer 30 bits.
In the E-DCH and HSDPA, because the HARQ operation, thus the bit error rate than the physical layer
Other high transmission channel, and, E-DCH and HSDPA are often large transport block transmitted to 2ms
For example an E-DCH TTI, the maximum transport block size of 11484 bits.
Communication is often used in a cyclic redundancy check (Cyclic Redundancy Check, referred to "CRC")
Code to detect the transmitted data block is correct, for example, in the ITU-T recommendation of 2048kbit / s (kilobits
Special sec) of PCM (Pulse Code Modulation, Pulse Code Modulation)-based equipment used in group
With a length of 4 CRC, wherein the CRC code with generator polynomial gCRC4(D)＝D
4+
D
1+1. According to a cyclic redundancy check (Cyclic Redundancy Check, referred to "CRC") of the original
Li, CRC checksum to detect 100% of all odd random bit errors, even almost all
A random number of bit errors, and the length is less than or equal to n consecutive bit errors (also called burst error
SE), where n is the order of the CRC generator polynomial.
In 3GPP, the addition to the HSDPA and E-DCH transport channel outside, 3GPP specifications
TS 25.212 length allows the use of the CRC bits are 24,16,12 and 8, the specific use of the CRC
Length is determined by the radio resource control (Radio Resource Control, abbreviated "RRC") semi-static transfer
Information elements of transport format information (Information Element, abbreviated "IE") determined.
Also according to the 3GPP specification TS 25.212, the transmit side MAC-e PDU into the physical layer
After the first attach a 24-bit CRC, the transport block prior to the HARQ process block error rate (Block
Error Rate, referred to as "BLER") high, in order to reliably detect transmission errors, the use of
Order of 24 of the CRC to reduce the probability of false negative errors. Then the channel coding, interleaving and Star
Block diagram mapping operations.
However, there is no need to transmit user data transmission SI separate case:
(1) UE Node B is not allowed to send data state control, namely SG parameters
"Zero_Grant" or all HARQ processes are in a non-active state;
(2) UE Node B is allowed to send data to the control state, that SG parameter is not equal to
"Zero_Grant" and at least one HARQ process is active, but in a non-active HARQ
Process and in the active HARQ processes certain TTI corresponding buffer has no data to send
Send.
In these cases, too, the individual 18-bit in the SI transmitted in the physical layer 24 to form a
Bit CRC code, and then by channel coding, interleaving and constellation mapping operation finally
E-DPDCH transmission.
In practical applications, the above scheme has the following problem: UE is in a separate wireless link transmission SI
Performance is poor.
The main reason for this situation, because after the CRC after the physical layer transmission block
Interleaving process, when the transport block is large consecutive higher bit error probability, the higher
The CRC coding order of consecutive bits can be detected errors, but for a separate 18-bit transfer
SI reported cases, 24-bit vs. 18-bit CRC SI is still long, leading to increased CRC itself
SI transmission BLER, while the wireless transmission efficiency is low, and thus the capacity of the uplink with a
The limits specified.
SUMMARY OF THE INVENTION
In view of this, the main object of the present invention is to provide a scheduling information in E-DCH transmission method
Method, the UE when the individual transmission SI improve the wireless link performance.
To achieve the above object, the present invention provides a scheduling information in E-DCH transmission method, including
Contains the following steps:
The user equipment is sent to the base station node scheduling information transmitted alone, the use of order less than 24
Encoding cyclic redundancy check of the transmission scheduling information is encoded;
The base station node receives the encoded information of the scheduling by using the same encoding
Order of cyclic redundancy check code of the scheduling information mode detector.
Wherein said user equipment in advance by one of the following messages notify the cycle used in the base station node
Ring redundancy check in the order of coding:
RRC layer message, the radio link establishment request message, the radio link reconfiguration prepare message
Or radio link reconfiguration request message.
In addition, in the method, the radio resource control layer protocol information element added for indicating
Encoding the cyclic redundancy check in the order;
The radio resource control layer carrying the message by the new information element, notify the base station
The cyclic redundancy check node in the order of coding.
In addition, in the method, the new information element to the information element "Scheduling
Information Configuration "and" E-DCH reconfguration information "in the.
In addition, in the method, the base station node or wireless network subsystem application part in the Applications
Additional information element for indicating a cyclic redundancy check in order of coding;
The radio link setup request message, the radio link reconfiguration prepare message, and the radio link reconfiguration
By the request message carrying the new information elements, notifying the base node of said cyclic redundancy
Encoding test in order.
In addition, in the method, the new information element to the information element "E-DPCH
Information "in.
The user equipment and the base station node according to a predetermined protocol cyclic redundancy check code except order
Number, for transmission of the scheduling information for a single cyclic redundancy check code or detected.
In addition, in the method, the order of less than 24 cyclic redundancy check the order of coding
One of the following:
4、8、12、16。
In addition, in the method, further comprising the steps of:
Said user device by determining the transport block size determining that the user equipment to the base station node hair
Whether to send scheduling information for a single transmission.
In addition, in the method, further comprising the steps of:
Said user equipment after cyclic redundancy check code of the scheduling information to perform channel coding, cross
Organizations, and constellation diagram mapping operations.
Can be found by comparing the present invention according to the prior technology, the main difference being that in
UE-SI transmission, the use of a fixed set under the agreement or through the relevant high-level protocol messages through
Knowledge of the order of less than 24 CRC encodes the SI sent to the Node B, Node B under the agreement
Proposed fixed settings or through the relevant high-level protocol messages using the same order of the notification of the CRC detection
The SI received correctly. By level protocol RRC, the base station node Application Part (Node-B
Application Part, referred to "NBAP") and Radio Network Subsystem (Radio Network Subsystem
Application Part, referred to "RNSAP") to add new elements of information makes the relevant information to
Used by the UE indicates the order of the CRC.
...
Can be found by comparing the present invention according to the prior technology, the main difference being that in
UE-SI transmission, the use of a fixed set under the agreement or through the relevant high-level protocol messages through
Knowledge of the order of less than 24 CRC encodes the SI sent to the Node B, Node B under the agreement
Proposed fixed settings or through the relevant high-level protocol messages using the same order of the notification of the CRC detection
The SI received correctly. By level protocol RRC, the base station node Application Part (Node-B
Application Part, referred to "NBAP") and Radio Network Subsystem (Radio Network Subsystem
Application Part, referred to "RNSAP") to add new elements of information makes the relevant information to
Used by the UE indicates the order of the CRC.
...
BRIEF DESCRIPTION
Figure 1 is a prior art schematic diagram of a frame format E-DPCCH/E-DPDCH;
Figure 2 is a first embodiment of the present invention, E-DCH transmission method in a flowchart of SI.
Specific embodiments
The object of the present invention, technical solutions and advantages more clearly below with reference to the present
Ming as described in further detail.
The present invention is a single SI of reports transmitted in the physical layer channel coding and multiplexing, allowing the
Less than 24 bits using a CRC code checksum reported as SI, which, CRC coding order to
Thought 16,12,8 or 4. On the order of 16, 12 or 8 for CRC coding, by the corresponding
TS 25.212, respectively, given the generator polynomial is as follows:
g
CRC16(D)＝D
16+D
12+D
5+1；
g
CRC12(D)＝D
12+D
11+D
3+D
2+D+1；
g
CRC8(D)＝D
8+D
7+D
4+D
3+D+1。
Order of 4 to CRC coding, the generating polynomial is as follows:
g
CRC4(D)＝D
4+D
1+1
In addition to individual transport in the SI report can be fixed using the order number one 16,12,8 or 4 of the CRC
In addition, it allows high-level protocols such as RRC, NBAP, RNSAP such flexibility to configure individual transport SI
Reporting the E-DCH transport block CRC of the order. In this way, the UE is in a separate transmission SI,
CRC coding can reasonably selected length, so long as a result of the CRC coding SI transmission BLER
Increase. And, in a separate transmission SI short length used when the CRC coding, wireless transmission efficiency improves
Rate, thereby effectively reducing the uplink interference system, help to optimize the uplink capacity of the system.
A first embodiment of the present invention, an E-DCH in the SI transmission method shown in Figure 2, UE and Node B
According to the agreement fixed settings of the CRC for a separate order for CRC coding SI transmission, the order less than 24,
4,8,12, or 16 for one.
In step 201, according to the current protocol version, SI reported Ks = 18 bits in length. Accordingly,
In the MAC layer MAC-e PDU into the physical layer, UE needs to transmit that determine the size of the transport block,
The MAC-e PDU size is 18 bits, and if it is, the transport block is a single transmission SI,
Go to Step 202; otherwise the transport block for a non-single transport block transmitted SI,, proceeds to step 203.
In step 202, UE using the protocol of the CRC fixed settings for individual transmission order of the CRC SI
Encoding, for example, the order number is set to 8.
In step 203, UE 24 using the CRC order SI transmission of non-single transport block is encoded.
In step 204, the transport block CRC encoded added, UE specified by TS25.212
Process for the transmission block for channel coding, interleaving and constellation mapping and other operations, and then send the transport block
To Node B.
In step 205, Node B fixed under the agreement set, the received transmission SI separate transmission
With this order of less than 24 blocks fixed set the order of the CRC detection, for example, the UE in step 202
Used to set the order of 8, according to the setting, Node B using the same order of CRC code is 8;
Node B for separate transmission received from non-SI transmission block 24, based on existing technology uses the CRC-order
Testing.
The second embodiment of the present invention, an E-DCH in the SI transmission method in the first embodiment is basically the same,
The only difference is that, by adding a new RRC IE "CRC Size for Standalone Scheduling
Info (CRC alone scheduling information size) "is used to indicate the physical layer transmission order of use of the CRC,
SI transmitted in a separate case, the report may be the order of 8, 12 or 16. And, UE through RRC
IE message carrying the new Node B by the advance notice of the order of CRC used in the E-DPDCH single
Independent Transmission SI report, Node B according to the RRC message transmitted with the UE using block CRC coding
The same order of the CRC of the received transport blocks for testing.
Specifically, in the RRC protocol, defines a description of E-DPDCH channel parameters IE
"E-DPDCH Info (E-DPDCH Info)" shown in Table 2, which contains the "Scheduling
Information Configuration (scheduling information Configuration) "in IE TS25.331 the RRC under the existing agreement
Yee, describes the E-DPDCH transmission parameters associated wireless SI: "Periodicity for Scheduling
Info-no grant (scheduling information cycle - non-authorized) "," Periodicity for Scheduling Info-grant (tune
Degree of information lifecycle - authorization) "and" Power Offet for Scheduling Info (scheduling information power offset). "
Will add IE "CRC Size for Standalone Scheduling Info" to add the IE "Scheduling
Information Configuration ", add the IE type (Need) is mandatory (Mandatory Present,
Abbreviation "MP"), which ranges from integer 0,4,8,12,16 or 24. This allows the RNC
For creating, modifying, and other E-DPDCH channel operation at the same time, the flexibility to specify the E-DPDCH transmission alone
SI input of the CRC used when reporting the order of, for example, typically of the order of l6, 12,8 or 4.
| Information Element / Group name Information Element / Group Name | Need Type | Multi Other | Type and reference Reference Type | Semantics description Semantic Description | Version Version |
| E-TFCI table index E-TFCI Table Index | MP Required | Integer (0 ... 1) Integer (0) | Indicates which standardised E-TFCI TB size table shall be used Indicate the standard used The E-TFCI transmission block Size Table | REL-6 Version 6 | |
| E-DCH minimum set E-TFCI E-DCH minimum set of E-TFCI | MD There is lack of Provincial value A must Options | Integer (0 ... 127) Integer (0 ... 127) | See [15]; Absence means no E-DCH minimum set See [15], the default representation No E-DCH minimum set | REL-6 Version 6 | |
| Reference E-TFCIs Reference E-TFCI | MP Required | 1 to 8 1 to 8 | See [29] See [29] | REL-6 Version 6 | |
| > Reference E-TFCI Reference E-TFCI | MP Required | Integer (0 ... 127) Integer (0 ... 127) | REL-6 Version 6 | ||
| > Reference E-TFCI power offset Reference E-TFCI power offset | MP Required | Integer (0 ... 29) Integer (0 ... 29) | Refer to quantization of the power offset in [28] Reference [28] in the power Quantitative offset | REL-6 Version 6 | |
| Maximum channelisation codes Maximum channelisation code | MP Required | Enumerated (sf64, sf32, sf16, sf8, sf4, 2sf4, 2sf2, 2sf2 and 2sf4) Enumerated (sf64, sf32, sf16, sf8, sf4, 2sf4, 2sf2, 2sf2 and 2sf4) | REL-6 Version 6 | ||
| PL non-max | MP Required | Real (0.44-1.0 by step of 0.04) Real numbers (0.44-1.0, With 0.04 increments) | As defined in [27] In [27] are defined | REL-6 Version 6 | |
| Scheduling Information Configuration Configure the scheduling information | MP Required | REL-6 Version 6 |
| > 2ms scheduled transmission grant HARQ process allocation 2ms scheduling transmissions authorized HARQ process allocation | MD There is lack of Provincial value A must Options | Bitstring (8) Bit stream (8) | MAC-d PDUs
belonging to
MAC-d flows not
configured with a
"Max MAC-e PDU
contents size "are
only allowed to be
transmitted in those
processes for which
the bit is set to "1".
Do not configure the "Maximum
MAC-e PDU payload
Size "is
MAC-d flow of
MAC-d PDU, only
This bit is set to 1
Permitted in these processes
Transmission.
|
MAC-d PDUs
belonging to
MAC-d flows not
configured with a
"Max MAC-e PDU
contents size "are
only allowed to be
transmitted in those
processes for which
the bit is set to "1".
Do not configure the "Maximum
MAC-e PDU payload
Size "is
MAC-d flow of
MAC-d PDU, only
This bit is set to 1
Permitted in these processes
Transmission.
|
|
| > Serving Grant Service authorization | OP Optional | REL-6 Version 6 |
| >> Serving Grant value Service authorization values | MP Required | Integer (0 ... 37, 38) Integer (0 ... 37, 38) | (0 .. 37) indicates E-DCH serving grant index as defned in [15]; index 38 means zero grant. (0 ... 37) indicated E-DCH service authorization cord Introduced [15] in the set Righteousness; index 38 represents 0 Authorization. | REL-6 Version 6 | |
| >> Primary / Secondary Grant Selector Basic / second authorization selector | MP Required | Enumerated ("Primary", "Secondary") Enumerated ("base This "," second ") | Indicates whether the Serving Grant is received with a Primary E-RNTI or Secondary E-RNTI Indicates the received service Authorization is a basic E-RNTI or the second E-RNTI. | REL-6 Version 6 | |
| 3-Index-Step Threshold 3 - Index - step threshold | MD There is lack of Provincial value A must Options | Integer (0 ... 37) Integer (0 ... 37) | Refers to an index in the "SG-Table" (see [15]). Reference "SG Table" Index (see [15]). Default value is 0. The default value is 0. | REL-6 Version 6 | |
| 2-Index-Step Threshold 2 - Index - step threshold | MD There is lack of Provincial value A must Options | Integer (0 ... 37) Integer (0 ... 37) | Refers to an index in the "SG-Table" (see [15]). Reference "SG Table" Index (see [15]). Default value is 0. The default value is 0. | REL-6 Version 6 | |
| NOTE: If the Periodicity is set to 4ms and the E-DCH TTI is set to 10ms, the UE shall interpret the periodicity value as 10ms. Note: If the cycle is set to 4ms and E-DCHTTI to 10ms, UE will 10ms as the period value. | |||||
Table 2
RRC protocol while also shown in Table 3 IE "E-DCH reconfiguration information
(E-DCH reconfiguration information), "added the IE" CRC Size for Standalone Scheduling Info ".
| Information Element / Group name Information Element / Group Name | Need Type | Multi Other | Type and reference Reference Type | Semantics description Semantic Description | Version Version |
| E-DCH RL Info new serving cell The E-DCH serving cell Wireless New link information | OP Optional | ||||
| > Primary CPICH info Primary CPICH information | MP Required | Primary CPICH info 10.3.6.60 Primary CPICH letter Interest 10.3.6.60 | Indicates scheduling E-DCH cell from the active set cells. Cell from the active set Indicated in the scheduling E-DCH cell. | REL-6 Version 6 | |
| > E-AGCH Info E-AGCH information | MP Required | E-AGCH Info 10.3.6.100 E-AGCH information 10.3.6.100 | REL-6 Version 6 | ||
| > Serving Grant Service authorization | OP Optional | REL-6 Version 6 | |||
| >> Serving Grant value Service authorization values | MP Required | Integer (0 ... 37, 38) Integer (0 ... 37, 38) | (0 ... 37) indicates E-DCH serving grant index as defined in [15]; index 38 means zero grant. (0 ... 37) indicated E-DCH service authorization cord Introduced [15] in the set Righteousness; index 38 represents 0 Authorization. | REL-6 Version 6 | |
| >> Primary / Secondary Grant Selector Basic / second authorization selector | MP Required | Enumerated ("Primary", "Secondary") Enumerated ("base This "," second ") | Indicates whether the Serving Grant is received with a Primary E-RNTI or Secondary E-RNTI. Indicates the received service Authorization is a basic E-RNTI or the second E-RNTI. | REL-6 Version 6 | |
| E-DPCCH/DPCCH Power Offset E-DPCCH/DPCCH power Offset | OP Optional | Integer (0 ... 8) Integer (0 ... 8) | Refer to quantization of the power offset in [28]. Reference [28] in the power Quantitative offset | REL-6 Version 6 | |
| …… |
| Information Element / Group name Information Element / Group Name | Need Type | Multi Other | Type and reference Reference Type | Semantics description Semantic Description | Version Version | |
| Select E-RGCH information | serving E-DCH cell is added to the active set with this message Only when the E-DCH service Cell growth through this message Plus activation settings when Exists. | |||||
| >> E-RGCH Information E-RGCH information | E-RGCH Info 10.3.6.102 E-RGCH information 10.3.6.102 | REL-6 Version 6 | ||||
| >> E-RGCH release indicator E-RGCH version indication | REL-6 Version 6 | |||||
| E-DCH RL Info other cells Other cells E-DCH radio Link Information | OP Optional | 1 to <Max E-DC H RL> 1 to < Maximum E-DC H Wireless Link> | This IE is not allowed to include information on a RL added by this message This message is not allowed for this IE Includes wireless link Information | |||
| > Primary CPICH info Initial CPICH information | MP Required | Primary CPICH info 10.3.6.60 The initial letter CPICH Interest 10.3.6.60 | REL-6 Version 6 | |||
| > CHOICE E-HICH Information Select E-HICH information | OP Optional | |||||
| >> E-HICH Information E-HICH information | E-HICH Info 10.3.6.101 E-HICH information 10.3.6.101 | REL-6 Version 6 | ||||
| >> E-HICH release indicator E-HICH version indication | REL-6 Version 6 | |||||
| > CHOICE E-RGCH Information Select E-RGCH information | OP Optional | |||||
| >> E-RGCH Information E-RGCH information | E-RGCH Info 10.3.6.102 E-RGCH information 10.3.6.102 | REL-6 Version 6 | ||||
| ＞＞E-RGCH release | REL-6 | |||||
| Information Element / Group name Information Element / Group Name | Need Type | Multi Other | Type and reference Reference Type | Semantics description Semantic Description | Version Version |
| indicator E-RGCH version indication | Version 6 |
Table 3
Third embodiment of the present invention, an E-DCH transmission method in the SI mode of the second embodiment is basically the same,
The only difference is that, by NBAP / RNSAP increase the IE "CRC Size for Standalone Scheduling
Info ", to inform the serving Node B of the UE used in the report of the SI order of CRC.
Among them, the NBAP / RNSAP involved in three E-DCH establish, modify and re-distribution of the news,
The "RADIO LINK SETUP REQUEST (Radio Link Setup Request message)", "RADIO LINK
RECONFIGURATION PREPARE (radio link reconfiguration prepare message), "and" RADIO LINK
RECONFIGURATION REQUEST (radio link reconfiguration request message) ", which were three messages
Contains an E-DCH is used to define the physical channel parameter IE "E-DPCH Information (E-DPCH
Information). "
Will add IE "CRC Size for Standalone Scheduling Info" to add these messages IE
"E-DPCH Information" in. Among them, the new IE add on "RADIO LINK SETUP
REQUEST "message is shown in Table 4.
Table 4
The new IE add on "RADIO LINK RECONFIGURATION PREPARE" message
As shown in Table 5.
| IE / Group Name Information Element / Group Name | Presence Choose | Range Range | IE Type and Reference Parameters information element Examination type | Semantics Description Semantic Description | Criticality Critical state | Assigned Criticality Pro conferred Boundary value |
| To Delete E-DCH MAC-d flow Delete | Optional | Be | Discard | |||
| Serving E-DCH RL E-DCH serving radio link | O Optional | 9.2.2.48B | YES Be | reject Discard |
Table 5
Add IE added to the "RADIO LINK RECONFIGURATION REQUEST" message
As shown in Table 6.
| IE / Group Name Information Element / Group Name | Presence Choose | Range Range | IE Type and Reference Information elements Reference Type | Semantics Description Semantic Description | Criticality Critical state | Assigned Criticality Pro conferred Boundary value |
| E-DCH serving radio link | Optional | Be | Discard |
Table 6
The three different embodiments, can improve the efficiency of the wireless transmission. However, since the first real
Embodiment does not pass RRC, NBAP signaling and RNSAP SI reports on individual transport CRC coding length
Configuration, so efficiency will be slightly higher; latter two embodiments through RRC, NBAP and RNSAP
SI signaling reports for individual transport CRC code length can be flexibly configured.
Although the present invention with reference to certain preferred embodiments, the present invention has been illustrated and
Description, the person of ordinary skill in the art should understand that, in form and details may be made of its
Kinds of changes without departing from the spirit and scope of the invention.
Claims (10)
- A method of scheduling information in E-DCH transmission method characterized by comprising the steps of:The user equipment is sent to the base station node scheduling information transmitted alone, the use of order less than 24 Encoding cyclic redundancy check of the transmission scheduling information is encoded;The base station node receives the encoded information of the scheduling by using the same encoding Order of cyclic redundancy check code of the scheduling information mode detector.
- (2) as claimed in claim 1, wherein an E-DCH in the scheduling information transmission method, wherein Said user device notified in advance by one of the following messages used in the base station node cyclic redundancy Test in the order of coding:RRC layer message, the radio link establishment request message, the radio link reconfiguration prepare message Or radio link reconfiguration request message.
- 3 according to claim 2, wherein the E-DCH scheduling information transmission method, wherein The radio resource control layer protocol information element added for indicating the cyclic redundancy check coding Where the order;The radio resource control layer carrying the message by the new information element, notify the base station The cyclic redundancy check node in the order of coding.
- As claimed in claim 3, wherein the E-DCH in the scheduling information transmission method, wherein Add the new information element in the information element "Scheduling Information Configuration" And "E-DCH reconfiguration information" in the.
- 5 according to claim 2, wherein the E-DCH scheduling information transmission method, wherein In the base station node applications partially or Radio Network Subsystem Application Part information element added to indicate Encoding the cyclic redundancy check in the order;The radio link setup request message, the radio link reconfiguration prepare message, and the radio link reconfiguration By the request message carrying the new information elements, notifying the base node of said cyclic redundancy Encoding test in order.
- As claimed in claim 5 in the E-DCH scheduling information transmission method, wherein The information elements of the new information element added to the "E-DPCH Information" in the.
- As claimed in claim 1 in the E-DCH scheduling information transmission method, whereinThe user equipment and the base station node according to a predetermined protocol order of the cyclic redundancy check, with The transmission of the scheduling information of the individual cyclic redundancy check code or detected.
- As claimed in claim 1 in the E-DCH scheduling information transmission method, wherein Of the order of less than 24 cyclic redundancy check coding order of one of the following:4、8、12、16。
- As claimed in any of claims 1 to 8 wherein a scheduling information in E-DCH transmission method, Characterized by further comprising the steps of:Said user device by determining the transport block size determining that the user equipment to the base station node hair Whether to send scheduling information for a single transmission.
- A process according to claim 9, wherein the scheduling information in E-DCH transmission method, wherein, Further comprising the steps of:Said user equipment after cyclic redundancy check code of the scheduling information to perform channel coding, cross Organizations, and constellation diagram mapping operations.
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