TIA EIA-136-933-2000 TDMA Third Generation Wireless Packet Data Services - Fixed-Coding Mode MAC《TDMA第3代无线电通信 分组数据服务 固定编码模式mac》.pdf

1、ANSI/TIA/EIA-136-933-2OOO Approved: March 31, 2000 TIA/EIA STANDARD TDMA Third Generation Wireless Packet Data Services - Fixed-Coding Mode MAC - TIABIA-136-933 TELECOMMUNICATIONS INDUSTRY ASSOCIATION Representing the telecommunications industry in association with the Electronic Industries Alliance

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7、ions to applicants desiring to obtain such a license. Details may be obtained from the publisher. This Standard does not purport to address all safety problems associated with its use or all applicable regulatory requirements. It is the responsibility of the user of this Standard to establish approp

8、riate safety and health practices and to determine the applicability of regulatory limitations before its use. (From Standards Proposal No. 4027-933 formulated under the cognizance of the TIA TR-45.3 Time Division Digital Technology Subcommittee). Published by TELECOMMUNICATIONS INDUSTRY ASSOCIATION

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10、ll rights reserved Printed in U.S.A. TINEIA-1 36-933 Foreword This foreword is not part of TINEIA-136-933. TIAEIA-136-933 describes the fixed-coding mode of the MAC (Medium Access Control) function specified in TIABIA- 136- 332. Higher layers and other functions within the RR (Radio Resource) layer

11、may use the MAC to transport data across a GPRS- 136 (General Packet Radio Service) radio interface. Readers unfamiliar with SDL (Specification and Description Language) may find this standard easier to understand than TIAEIA-136-332; however, note the following: This standard is descriptive, and th

12、erefore, it contains no requirements. If this standard conflicts with TIABIA-136- 332, the latter shall govern. TIA-136-933 was developed by TR-45.3.2, the Data Services Working Group of TR-45.3, the TIA TDMA Wireless Standards Subcommittee. TIA welcomes suggestions for improvement of this standard.

13、 Please send suggestions to the following address: Telecommunications Industry Association 2500 Wilson Boulevard Suite 300 Arlington VA 22201-3836 i TINEIA-1 36-933 THIS PAGE INTENTIONALLY LEFT BLANK 11 TINEIA-1 36-933 Contents 1 . 2 . 3 . 3.1 3.2 3.2.1 3.2.2 3.3 3.4 3.5 3.6 4 . 4.1 4.1.1 4.1.2 4.1.

14、3 4.1.4 4.1.5 4.1.6 4.1.7 4.1.8 4.1.9 Introduction . 1 Definitions and Abbreviations 2 Functional Overview 4 MAC Layer Services 4 MAC Layer Functions 4 Packet-Data Transactions . 4 Broadcast Operation . 5 Multiplexing Principles 5 Sleep State . 5 Active State . 6 Packet Channel Feedback . 6 Function

15、al Blocks 7 MS Functional Blocks 7 MAC Logical Link Discriminator (MLLD) . 8 Frame Extractor (FRX) 9 Transmit Buffer (TXB) 10 Transmission Controller (TC) . 10 PDU Encoder (PENCFC) . 11 PDU Decoder (PDECFC) . 11 Channel Access Manager (CAM) . 12 Subchannel Controller (SCC) . 13 Stuffer (STF) . 9 4.1

16、.10 MAC Layer Controller (MLC) . 13 4.1.11 Router (TCRT) 13 4.1.12 Broadcast Controller (BCC) . 14 4.2 4.2.1 4.2.2 4.2.3 4.2.4 4.2.5 4.2.6 4.2.7 4.2.8 4.2.9 BS Functional Blocks . 15 MAC Logical Link Discriminator (MLLD) . 16 Stuffer (STF) . 16 Frame Extractor (FRX) 16 TX Buffer (TXB) . 16 Transmiss

17、ion Controller (TC) . 16 PDU Encoder (PENCFC) . 17 PDU Decoder (PDECFC) . 17 Channel Access Manager (CAM) . 17 Subchannel Controller (SCC) . 17 4.2.10 MAC Layer Controller (MLC) . 18 4.2.1 1 Router (TCRT) 18 4.2.12 Broadcast Controller (BCC) . 18 4.2.13 Point-to-Multipoint Transmission Controller (P

18、MTC) . 18 5 . MAC PDUs . 19 5.1 Uplink - Full Length Slots . 19 . 111 TINEIA-1 36-933 5.1.1 5.1.2 5.1.3 5.1.4 5.2 5.2.1 5.2.2 5.2.3 5.2.4 5.3 5.3.1 5.3.2 5.3.3 5.3.4 5.3.5 5.3.6 5.4 6 . 6.1 6.2 6.3 6.4 6.5 7 . 7.1 7.1.1 Full Length BEGIN Frame . 19 Full Length CONTINUE PDU . 19 Full Length ARQ STATU

19、S PDU Format 1 20 Full Length ARQ STATUS PDU Format 2 20 Uplink . Abbreviated Slots 21 Abbreviated CONTINUE PDU 22 Abbreviated ARQ STATUS PDU Format 1 . 22 Abbreviated ARQ STATUS PDU Format 2 . 23 Downlink PDUs . 24 Downlink BEGIN PDU . 24 Downlink CONTINUE PDU 25 Downlink ARQ STATUS PDU Format 1 .

20、25 Downlink ARQ STATUS PDU Format 2 . 26 Variable Page PDU 27 NULL PDU . 28 Abbreviated BEGIN PDU 21 Field Definitions 28 Packet Channel Feedback . 34 SLA Encoding and Decoding . 35 SLF Encoding and Decoding . 35 R/N Encoding and Decoding 35 C/S Encoding and Decoding 35 CQF Encoding and Decoding . 3

21、6 Transaction Management . 37 Transaction Establishment in Sleep State 37 Uplink Transactions . 37 7.1.1.1Random Access Back-off Calculation 38 7.1.1.2AMI Assignment Procedure . 39 7.1.1.3Contention Resolution . 39 7.1.1.4Processing the Remainder of the Transaction 40 7.1.1.5Abnormal Cases 41 7.1.2

22、Downlink Transactions 41 7.1.2.1Abnormal Cases 42 7.2 Channel Assignments 42 Channel Assignment When Starting an Uplink Transaction 42 Channel Assignment When Starting a Downlink Transaction . 44 MS Response to a Channel Assignment . 45 7.1.3 Page Requests 42 7.2.1 7.2.2 7.2.3 7.2.4 Phase Assignment

23、 45 7.2.5 Indications and Primitives 45 7.3 7.3.1 7.3.1.2CONTINUE PDU Transmissions . 46 Allocation of Channel Resources 45 Uplink Data Transfer . 45 7.3.1.1 Transaction Size Indication 45 7.3.1.3Change of Resource Allocations 46 iv TINEIA-1 36-933 7.3.2 Downlink Data Transfer . 47 7.3.2.1 Transacti

24、on Size Indication 47 7.3.2.2CONTlNUE PDU Transmissions . 47 7.3.2.3Polling for Acknowledged Mode Transactions 47 7.3.2.4Change of Resource Allocations . 48 7.4 Concurrent Transactions in Active State . 48 7.4.1 Acknowledged Downlink Transactions . 48 7.4.2 Unacknowledged Downlink Transactions . 49

25、7.4.3 Uplink Transactions . 50 Uplink Transaction Interruption 51 7.5 7.6 Transaction Priority 52 7.6.1 Priority Management for Uplink Transactions . 53 7.6.2 Priority Management for Downlink Transactions 54 7.7 8 . 8.1 Peer-to-Peer Operation . 55 8.1.1 8.1.2 Acknowledge State Variable (NKPS) 55 8.1

26、.3 8.1.4 8.1.5 Receive State Variable (NL-RX) 56 8.1.6 Receive Window State Variable (NF-Rx) 57 8.1.7 Receive State Array (RxT Table) 57 8.1.8 Processing of Primary Bit Map . 57 8.1.9 Maximum Window Size o) . 58 8.1.10 Transaction Completion . 58 8.2 8.2.1 Downlink ARQ Mode 59 8.2.1.1 Delivery of BE

27、GIN PDUs 59 8.2.2 Downlink Non-ARQ Mode 61 8.2.3 8.2.4 Transaction Delivery Characteristics 63 9 . 9.1 Parity Bits 65 9.1.1 9.1.2 Abbreviated Length Uplink Slots 66 9.1.3 Downlink Slots 67 9.2 Generic Functions 68 9.2.1 Error Correction . 68 9.2.2 Generic CRC Encoding 68 9.2.3 Generic Encoding Proce

28、ss 69 9.3 9.3.1 9.3.1.1 Convolutional Encoding for Full Length Type 1 PDUs . 70 Transaction for RRME Data Delivery . 54 ARQ Mode Operation 55 Send State Variable (NSMax) . 55 Acknowledge State Array (TxT Table) . 56 Block Sequence Number (BSN) . 56 Modes of Operation . 59 8.2.1.2Delivery of CONTINUE

29、 PDUs 60 Uplink ARQ Mode . 62 Parity, Channel Coding and Interleaving . 65 Full Length Uplink Slots 65 Channel Coding and Interleaving 70 Full Length Uplink Slots 70 V TINEIA-1 36-933 9.3.1.2Convolutional Encoding for Full Length Type 2 PDUs . 71 9.3.1.4Interleaving for Full Length Type 2 PDUs . 71

30、9.3.2 Abbreviated Length Uplink Slots . 71 9.3.2.1 Convolutional Encoding for Abbreviated Length Type 1 PDUs 71 9.3.2.2Convolutional Encoding for Abbreviated Length Type 2 PDUs 71 9.3.2.4Interleaving for Abbreviated Length Type 2 PDUs 71 9.3.3 Downlink Slots 72 9.3.3.2Convolutional Encoding for Down

31、link Type 2 PDUs 72 9.3.3.4Interleaving for Downlink Type 2 PDUs . 72 9.3.1.3 Interleaving for Full Length Type 1 PDUs . 71 9.3.2.3 Interleaving for Abbreviated Length Type 1 PDUs 71 9.3.3.1 Convolutional Encoding for Downlink Type 1 PDUs 72 9.3.3.3 Interleaving for Downlink Type 1 PDUs . 72 10 . 10

32、.1 10.2 10.3 10.4 10.5 10.6 11 . 11.1 11.2 11.3 11.4 12 . 12.1 12.2 Timer Management 73 T-AMI 73 T-INAC-nonARQ . 74 TMAT . 74 TWA . 75 Rules for PTCH Operation . 75 Rules for PCCH Operation . 75 Modulation Management . 76 Uplink DFT . 77 Downlink DFT 76 Downlink CQF 77 Uplink CQF . 77 Multi-Rate Ope

33、ration . 78 Full-Duplex Operation . 78 Half-Duplex Operation 78 12.2.1 78 12.2.2 Uplink Half-Duplex . 79 13 . Sleep State . 80 13.1 PPCH Slot Management 80 14 . Broadcast Functions . 81 14.1 Broadcast Functions at the BS 81 14.2 Broadcast Functions at the MS . 81 14.3 Broadcast Change Notification .

34、 82 15 . References . 83 vi TINEIA-1 36-933 Figures Figure 1 Figure 2 Figure 3 Figure 4 Figure 5 Figure 6 Figure 7 Figure 8 Figure 9 Figure 10 Figure 11 Figure 12 Figure 13 Figure 14 Figure 15 Figure 16 Figure 17 Figure 18 Figure 19 Figure 20 Figure 21 Figure 22 Figure 23 Figure 24 Figure 25 Figure

35、26 Figure 27 Figure 28 Figure 29 Figure 30 MS Functional Blocks . 8 BS Functional Blocks 15 Full Length BEGIN Frame (d4.DQPSK, 50 bit MSID) . 19 Full Length BEGIN Frame (d4.DQPSK. 32 bit MSID) . 19 Full Length CONTINUE PDU (d4-DQPSK) . 20 Full Length CONTINUE PDU (8-PSK) . 20 Full Length ARQ STATUS

36、PDU Format 1 (d4.DQPSK, PBMP = O) 20 Full Length ARQ STATUS PDU Format 2 (d4.DQPSK, PBMP = 1) 20 Full Length ARQ STATUS PDU Format 2 (S.PSK, PBMP = 1) 21 Abbreviated BEGIN PDU (d4.DQPSK, 50 bit MSID) 21 Abbreviated BEGIN PDU (d4.DQPSK, 32 bit MSID) 22 Abbreviated CONTINUE PDU (d4.DQPSK) 22 Abbreviat

37、ed CONTINUE PDU (8-PSK) 22 Abbreviated ARQ STATUS PDU Format 1 (d4.DQPSK, PBMP = O) . 23 Abbreviated ARQ STATUS PDU Format 2 (d4.DQPSK, PBMP = 1) . 23 Abbreviated ARQ STATUS PDU Format 2 (S.PSK, PBMP = 1) 23 Downlink BEGIN PDU (d4.DQPSK, 50 bit MSID) 24 Downlink BEGIN PDU (d4.DQPSK, 32 bit MSID) 24

38、Downlink CONTINUE PDU (d4-DQPSK) . 25 Downlink CONTINUE PDU (8-PSK) 25 Downlink ARQ STATUS PDU Format 1 (z/4.DQPSK, PBMP = O, 50 bit MSID) . 25 Downlink ARQ STATUS PDU Format 1 (z/4.DQPSK, PBMP = O, 32 bit MSID) . 26 Downlink ARQ STATUS PDU Format 2 (d4.DQPSK, PBMP=l) 26 Downlink ARQ STATUS PDU Form

39、at 2 (S.PSK, PBMP = 1) . 27 Variable Page PDU (d4.DQPSK, 1 IMSI and 1 TLLI Paged) 27 Variable Page PDU (d4.DQPSK, 3 TLLIs Paged) . 27 Null PDU (d4-DQPSK) 28 Composition of PCF 35 CRC Endoding 69 Coding, Puncturing and Multiplexing 69 vii TINEIA-1 36-933 Tables Table 1 Table 2 Table 3 Table 4 Table 5

40、 Table 6 Table 7 Table 8 Table 9 Table 10 Table 11 Table 12 Table 13 Table 14 Table 15 Data Segment Sizes For Full Length Uplink Slots . 10 Data Segment Sizes For Abbreviated Uplink Slots 10 Data Segment Sizes For Downlink Slots . 11 Excluded AMI Values (decimal) . 28 Primitives Supported on the GRR

41、 SAP at the MS 37 Expressions for Computing T-RetryMax 38 Default Values for Random Access Parameters . 39 Primitives Supported on the GRR SAP at the BS 41 ARQ Window Sizes . 58 ARQ Mode Delivery Characteristics . 63 Full Length Uplink Slots . 65 Abbreviated Length Uplink Slots 66 Downlink Slots . 6

42、7 DFT Values 76 Mapping DFT Values into CDFT Codewords 77 . v111 TINEIA-1 36-933 Date Revision History Description ix TINEIA-1 36-933 THIS PAGE INTENTIONALLY LEFT BLANK X TINEIA-1 36-933 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 1. I nt roduct ion TIAEIA-136-933 describes the fixed-coding m

43、ode of the MAC (Medium Access Control) function specified in TIAEIA-136-332. Higher layers and other functions within the RR (Radio Resource) layer may use the MAC to transport data across a GPRS-136 (General Packet Radio Service) radio interface. The MAC provides the following services: High-priori

44、ty bidirectional data transport between the base station and each active mobile station. For the uplink, data transport is acknowledged. For the downlink, data transport may be acknowledged or unacknowledged. Low-priority bidirectional data transport between the base station and each active mobile s

45、tation. For the uplink, data transport is acknowledged. For the downlink, data transport may be acknowledged or unacknowledged. Unidirectional broadcast data transport from the base station to multiple mobile stations. These services are provided via two service-access points per mobile station: one

46、 for bidirectional data and one for broadcast data. The MAC requires the services of the physical layer specified in TIAEIA-136-331. These services are accessed via up to 9 service-access points: one service-access point for each subchannel provided by the physical layer. This standard is descriptiv

47、e, and therefore, it contains no requirements. If this standard conflicts with TIAEIA-136-332, the latter shall govern. TINEIA-1 36-933 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 2. Definitions and Abbreviations Active Mobile Identity (AMI): A 7 bit

48、alias assigned to an MS at the start of a mansaction and used to identify ownership of MAC PDUs transmitted during a transaction. Active State: The state where an MS may have one or more transactions in progress and is reading all downlink slots it is capable of reading on its current PDCH. Bandwidt

49、h Capability: Indicates the MS ability to transmit and receive on different combinations of timeslots. Coded MAC PDU: A Coded MAC PDU is a MAC PDU that has been provided with a CRC, channel coded and interleaved. Data Segment: A set of data octets derived from the set of one or more MAC Stuffed SDUs comprising a transaction. A Data Segment carried within a CONTINUE PDU is known as a Data Block. Fixed Allocation: A mode of uplink operation where an MS may transmit multiple MAC PDUs without reading packet channel feedback. MAC PDU: A MAC PDU is a protocol data unit (e.g. BEGIN PDUs and CON