IEEE 802.22b 2015
$96.42
IEEE Standard for Information Technology–Telecommunications and information exchange between systems – Wireless Regional Area Networks (WRAN)–Specific requirements – Part 22: Cognitive Wireless RAN Medium Access Control (MAC) and Physical Layer (PHY) Specifications:Policies and Procedures for Operation in the TV Bands – Amendment 2: Enhancement for Broadband Services and Monitoring Applications
Published By | Publication Date | Number of Pages |
IEEE | 2015 | 299 |
Amendment Standard – Active. Alternate physical layer (PHY) and necessary medium access control layer (MAC) enhancements to IEEE Std 802.22-2011 are specified in this amendment for operation in very high frequency/ultra-high frequency (VHF/UHF) television broadcast bands between 54 MHz and 862 MHz to support enhanced broadband services and monitoring applications. The amendment supports aggregate data rates greater than the maximum data rate supported by the IEEE Std 802.22-2011. This amendment defines new classes of IEEE 802.22(TM) devices to address these applications and supports more than 512 devices in a network. This amendment also specifies techniques to enhance communications among the devices and makes necessary amendments to the cognitive, security, and parameters and connection management clauses. This amendment supports mechanisms to enable coexistence with other IEEE 802(R) systems in the same band.(The PDF of this standard is available at no cost compliments of the GETIEEE802 program http://standards.ieee.org/about/get/802/802.22.html)
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 802.22b-2015 Front Cover |
3 | Title page |
5 | Important Notices and Disclaimers Concerning IEEE Standards Documents |
8 | Participants |
10 | Introduction |
11 | Contents |
22 | 1. Overview 1.3 Reference application 3. Definitions |
24 | 4. Abbreviations and acronyms |
25 | 7. MAC Common Part sublayer 7.1 General |
26 | 7.2 Addressing and connections |
27 | 7.3 General superframe structure 7.4 General frame structure (on PHY-OM1) |
28 | 7.4a General frame structure (on PHY-OM2) 7.4a.1 General frame structure for normal mode 7.4a.2 General frame structure for self-coexistence mode 7.4a.3 Frame format |
32 | 7.4b General frame structure for a relay network 7.4b.1 General frame structure for a centralized scheduling mode |
33 | 7.4b.2 General frame structure for a distributed scheduling mode |
35 | 7.4b.3 Detail of zones |
38 | 7.5 Control header 7.5.1 Superframe Control header 7.5.2 Frame Control header |
39 | 7.5.2a Frame control header for PHY-OM2 |
43 | 7.5.2b Distributed relay zone (DRZ) Frame Control header (DRZ-FCH) |
44 | 7.6 MAC PDU formats 7.6.1 MAC headers |
50 | 7.7 Management messages 7.7.1 Downstream Channel Descriptor (DCD) |
54 | 7.7.2 Downstream MAP (DS-MAP) |
62 | 7.7.3 Upstream Channel Descriptor (UCD) |
65 | 7.7.4 Upstream MAP (US-MAP) |
80 | 7.7.7 REG-REQ/RSP |
82 | 7.7.11 CPE Basic Capability Request/Response (CBC-REQ/RSP) |
84 | 7.7.24 Confirmation codes 7.7.25 Local Cell Update messages |
86 | 7.7.26 Container message |
87 | 7.7.27 Downstream Transmit Test (DTT) messages |
89 | 7.7.28 Relay-Schedule (Relay-SCHE) message |
90 | 7.7.29 Channel Allocation Manager management messages |
92 | 7.7.30 Group Resource Allocation management messages |
95 | 7.7.31 Ranging Report (RNG-RPT) message 7.8 Management of MAC PDUs 7.8.4 Packing |
96 | 7.8.7 MAC PDU construction for relay |
107 | 7.8.8 MAC PDU transmission for relay |
109 | 7.9 ARQ mechanism 7.9.6 ARQ operation |
111 | 7.10 Scheduling services 7.10.2 Upstream request/grant scheduling |
112 | 7.11 Bandwidth management 7.11.1 Bandwidth Requests |
113 | 7.11.2 Grants |
114 | 7.11.3 Polling |
116 | 7.13 Contention resolution 7.13.1 Transmission opportunities |
117 | 7.14 Initialization and network association 7.14.3 A-BS initialization |
120 | 7.14.4 CPE initialization for relay |
141 | 7.15 Ranging 7.15.1 DS management |
146 | 7.15.2 US management |
151 | 7.16 Channel descriptor management 7.18 QoS 7.18.9 Service Flow Management |
154 | 7.19 Incumbent protection 7.19.2 Measurements management |
155 | 7.19.4 Measurement report and notification |
156 | 7.20 Self-coexistence 7.20.1 Coexistence Beacon Protocol (CBP) |
157 | 7.20.4 Self-coexistence for a relay network |
160 | 7.21 Quiet periods and sensing 7.21.2 Synchronization of overlapping quiet periods |
161 | 7.21.4 Quiet periods and sensing for a relay network |
162 | 7.22 Channel management 7.22.3 Channel management on a relay network |
165 | 7.23 Synchronization of the IEEE 802.22 base stations and IEEE 802.22b base stations 7.24 Multi-channel operation 7.24.1 General |
167 | 7.24.2 Channel allocation manager |
182 | 7.24.3 Multi-channel operation at A-BS |
183 | 7.24.4 Multi-channel operation at A-CPE |
184 | 7.25 Group Resource Allocation |
186 | 8. Security mechanism in IEEE 802.22 |
187 | 8.1 Security Architecture for the Data/Control and Management Planes 8.1.2 Key management and authentication overview 8.2 SCM protocol 8.2.2 Authentication state machine |
188 | 8.2.3 TEK exchange overview 8.3 Key usage 8.3.1 BS key usage |
189 | 8.4 Cryptographic methods 8.4.1 Selection of Data Encryption and Authentication methods |
190 | 8.4.2 Data Encryption and Authentication with AES GCM |
196 | 8.6 Security sublayer 2—Security mechanisms for the cognitive functions 8.6.2 CBP Authentication mechanisms |
198 | 9. PHY Operation Mode 1 (PHY-OM1) |
199 | 9.2 Data rates |
212 | 9.4 Superframe and frame structure 9.4.1 Preamble |
214 | 9.7 Channel coding 9.7.2 Forward Error Correction (FEC) |
220 | 9.8 Constellation mapping and modulation 9.8.1 Data modulation |
223 | 9.9 Control mechanisms 9.9.4 Power control |
225 | 9.14 Receiver requirements 9.14.1 Receiver minimum sensitivity 9.15 Multiple-input, multiple-output (MIMO) 9.15.1 Overview 9.15.2 MIMO pilot allocation |
227 | 9.15.3 Space time coding (STC) |
232 | 9.15.4 Spatial multiplexing |
233 | 9a. PHY Operation Mode 2 (PHY-OM2) |
234 | 9a.1 Symbol description 9a.1.1 OFDM symbol mathematical representation |
235 | 9a.1.2 Symbol parameters |
237 | 9a.1.3 OFDMA basic terms definition |
241 | 9a.2 Data rates |
253 | 9a.3 Functional block diagram applicable to the PHY |
254 | 9a.4 Frame structure |
255 | 9a.4.1 Preamble |
257 | 9a.4.2 Control header and MAP definitions |
258 | 9a.5 CBP packet format 9a.6 OFDM subcarrier allocation 9a.6.1 Pilot pattern |
259 | 9a.6.2 DS subcarrier allocation |
262 | 9a.6.3 Upstream subcarrier allocation |
266 | 9a.6.4 Bit interleaving 9a.7 Channel coding 9a.7.1 Data scrambling 9a.7.2 Forward error correction (FEC) |
269 | 9a.8 Constellation mapping and modulation 9a.8.1 Data modulation |
270 | 9a.8.2 Pilot modulation 9a.9 Control mechanisms 9a.9.1 DS synchronization 9a.9.2 US synchronization 9a.9.3 Opportunistic US bursts |
274 | 9a.9.4 Power control |
275 | 9a.10 Network synchronization 9a.11 Frequency control requirements 9a.12 Antenna 9a.13 RF mask 9a.14 Receiver requirements |
276 | 9a.15 MIMO pilot allocation 9a.15.1 Overview 9a.15.2 Pilot allocation for two antennas |
277 | 9a.15.3 Pilot allocation for four antennas 9a.15.4 Space time coding (STC) 10. Cognitive radio capability 10.1 General |
278 | 12. Parameters and connection management 12.1 Parameters, timers, message IEs 12.1.1 MAC (dynamic service flow, multicast, ARQ, capability, and bandwidth management) 12.1.2 PHY (initialization, operation, and DS/US synchronization) |
283 | 14. Management plane interfaces and procedures 14.2 Primitive definitions 14.2.1 Management SAP (M-SAP) |
288 | Annex G (informative) Bibliography |
289 | Annex H (informative) Multiple-input, multiple-output (MIMO)—Receiver side implementation |
299 | Back Cover |