DL - 4G Americas

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MTSI Multimedia Telephony Service for IMS MU-MIMO Multi-User Multiple-Input Multiple-Output MVNO Mobile Virtual Network Operator NACC Network Assisted Cell Change NAI Network Access Identifier NAS Non Access Stratum NDS Network Domain Security NFC Near Field Communications NGMN Next Generation Mobile Networks Alliance NGN Next Generation Network NGOSS Next Generation Operations Support Systems (HP) NI-LR Network Induced Location Request NIMTC Network Improvements for Machine-Type Communication NMR Network Measure Report NOVES Non-Voice Emergency Serves NRT Neighbor Relation Table NWS National Weather Service NxDFT-S-OFDM N times Discrete Fourier Transforms Spread Orthogonal Frequency Division Multiplexing O&M Operations and Maintenance OCC Orthogonal Cover Code OECD Organization for Economic Cooperation and Development OFDM Orthogonal Frequency Division Multiplexing OFDMA Orthogonal Frequency Division Multiplexing Access (air interface) OL-MIMO Open Loop Multiple-Input Multiple-Output OMA Open Mobile Architecture OMA-DS OMA Data Synchronization OP Organizational Partner OPEX Operating Expenses OS Operating System OTA Over the Air OTDOA Observed Time Difference of Arrival PAM Priority Alarm Message PAPR Peak to Average Power Ratio PAR Peak to Average Ratio PARC Per-Antenna Rate Control PBCH Primary BCH PC Physical Channel PCC Policy and Charging Convergence PCD Personal Content Delivery PCEF Policy and Charging Enforcement Function PCFICH Physical Control Format Indicator Channel PCH Paging Channel PCMM Packaged Core Memory Model PCO Power Control Optimization OR Point of Control and Observation (ITU-T) PCRF Policy and Changing Rules Function P-CSCF Proxy Call Session Control Function PDA Personal Desktop Assistant PDCCH Physical Downlink Control Channel PDCP Packet Data Convergence Protocol PDG Packet Data Gateway PDN Public Data Network PDSCH Physical Downlink Shared Channel PDU Packet Data Unit P-GW PDN Gateway www.4gamericas.org February 2011 Page 200
PHICH Physical Hybrid ARQ Indicator Channel PHY/MAC Physical layer/Medium Access Control PLMN Public Land Mobile Network PMCH Physical Multicast Channel PMI Precoding Matrix Index PMIP Proxy Mobile IPv6 PND Personal Navigation Device PoA Point of Attachment PoC Push-to-Talk over Cellular PPR Push-Profile-Request PRACH Physical Random Access Channel PRB Physical Resource Block PS Packet Switched PSAP Public Safety Answering Point P-SCH Primary Synchronization Signal PSRC Per Stream Rate Control PUCCH Physical Uplink Control Channel PUSCH Physical Uplink Shared Channel PWS Public Warning System QAM Quadrature Amplitude Modulation QCI QoS Class Index QoS Quality of Service QPP Quadratic Polynomial Permutation QPSK Quadrature Phase Shift Keying Qt “Cutie” is a cross application development framework QWERTY Of, relating to, or designating the traditional configuration of typewriter or computer keyboard keys. Q, W, E, R, T and Y are the letters on the top left, alphabetic row. QZSS Quasi Zenith Satellite System R&D Research and Development RAB Radio Access Bearer RACH Random Access Channel RADIUS AAA Remote Authentication Dial In User Service for Authentication, Authorization, and Accounting management for computers to connect and use a network service RAM Remote Application Management RAN Radio Access Network RAN1 Working group within 3GPP focused on physical layer specifications RAT Radio Access Technology RB Radio Bearer or Resource Blocks REG Resource Element Group Rel-X Release ‘99, Release 4, Release 5, etc. from 3GPP standardization RF Radio Frequency RG Residential Gateway RIT Radio Interface Technology RLC Radio Link Control Layer RN Relay Node RNC Radio Network Controller RNTI Radio Network Temporary Identifier RRC Radio Resource Control RRH Remote Radar Head RRM Radio Resource Management RRU Remote Radio Unit RS Reference Signal RTCP RTP Control Protocol RTP/UDP Real-Time Transport Protocol/User Datagram Protocol S1AP S1 Application Protocol www.4gamericas.org February 2011 Page 201
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www.4gamericas.org February 2011 Pa
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7.3.1 Home NodeB/eNodeB enhancement
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D.2 TARGET REQUIREMENTS FOR 3GPP LT
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downlink throughput of up to 21 Mbp
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eceivers. Examples of advanced rece
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1 INTRODUCTION Wireless data usage
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2 PROGRESS OF RELEASE 99, RELEASE 5
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HSDPA network in February, followed
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download speeds of up to 8 Mbps aim
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Since around 2005, some research fi
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As operators evolve their networks
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One of key elements of the LTE/SAE
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In 2008, a top vendor unveiled the
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3 PLANS FOR RELEASE 9 AND RELEASE 1
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4 THE GROWING DEMANDS FOR WIRELESS
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to address network congestion issue
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U.S. This represents a 151 percent
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accounted for 12 percent of total r
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various mobile data services have o
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devices to turn them into full-fled
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spectrum for mobile broadband use.
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MME S1-MME S11 eNode IP GW S1-U Fig
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Figure 5.2. Example of Semi-Persist
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ideas for potential technologies an
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6.2 THE 3GPP ROLE Figure 6.1. Progr
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7 STATUS OF RELEASE 10: HSPA+ ENHAN
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Figure 7.2. An Illustration of NxDF
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LTE-Advanced will extend the downli
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complexity but it may also be used
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to in 3GPP. 117 The simulation scen
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To enhance the measurement accuracy
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enables the base station to schedul
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These two advantages are illustrate
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Local IP Access provides access for
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7.3.3 FIXED MOBILE CONVERGENCE ENHA
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PCC, so the 3GPP intends to first a
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The study is concluded in 3GPP Rel-
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The decision to anchor media at the
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7.3.9 IP‐SHORT‐MESSAGE‐GATEWA
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E-UTRA CA Band E-UTRA operating Ban
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optimized proprietary receiver tran
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8.2.1.3 DL COMP In terms of downlin
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8.2.2 CARRIER AGGREGATION Figure 8.
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2-TX antennas Figure 8.5. Uplink Du
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� Subscribed for same or similar
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The mechanism shall properly handle
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8.4.7 FIXED MOBILE CONVERGENCE The
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9 CONCLUSIONS Wireless data usage c
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Communications Research demo lab in
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increases through load balancing an
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support the most heavily loaded and
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Telecom, Telecom Italia, Telefónic
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Motorola’s mobility management en
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conducted with the 4G mobile techno
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� The industry’s first dual-car
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APPENDIX B: UPDATE OF RELEASE 9 STA
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that is vital for the operation of
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B.2.1.4 PDN GW SELECTION FUNCTION (
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The subscribers of participating CM
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3GPP TS 29.168. Cell Broadcast Cent
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� Gateway Mobile Location Center
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CELL ID METHOD This is the simplest
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Figure B.4. 1xRTT CSFB Architecture
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In the following outline, the funct
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o Includes concurrent 1xRTT and HRP
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MBMS GW One or more MBMS GW functio
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Figure B.7. Phases of MBMS Broadcas
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B.2.6 SELF‐ORGANIZING NETWORKS (S
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cross-talk suppression. The downlin
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eNodeB solutions. Rel-8 defined the
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UE HeNB LTE-Uu C1 (OMA DM /OTA) S1
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Server. The latter capability allow
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Denoted by � i the number of corr
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Table C.2. Cell Edge User Spectral
Page 149 and 150: C.1.7 HANDOVER The handover interru
Page 151 and 152: APPENDIX D: LTE‐ADVANCED AND SELF
Page 153 and 154: 2 Linked work items (list of linked
Page 155 and 156: d) To develop documents that will s
Page 157 and 158: Full‐buffer spectrum efficiency E
Page 159 and 160: Uplink peak spectrum efficiency •
Page 161 and 162: Cell‐average and Cell‐edge spec
Page 163 and 164: Cell‐average and Cell‐edge spec
Page 165 and 166: Antenna configuration (C) VoIP resu
Page 167 and 168: APPENDIX F: THE ITU‐R IMT‐ADVAN
Page 169 and 170: ITU-R Outside ITU-R Step 1 Circular
Page 171 and 172: APPENDIX G: GLOBAL HSPA & HSPA+ DEP
Page 173 and 174: Africa Réunion SFR Reunion In Serv
Page 175 and 176: Latin America & Caribbean Jamaica C
Page 177 and 178: Asia Pacific Malaysia DiGi (Telenor
Page 179 and 180: Eastern Europe Czech Republic Mobil
Page 181 and 182: Eastern Europe Slovenia T‐2 In De
Page 183 and 184: Western Europe Liechtenstein mobilk
Page 185 and 186: US/Canada Canada Bell Wireless Affi
Page 187 and 188: Latin America Colombia UNE Planned
Page 189 and 190: Eastern Europe Armenia Orange Armen
Page 191 and 192: Western Europe Andorra STA Planned
Page 193 and 194: Middle East Saudi Arabia Etihad Eti
Page 195 and 196: C/I Carrier to Interference Ratio (
Page 197 and 198: FER Frame Erasure Rate FFR Fraction
Page 199: LI Lawful Intercept LIPA Local Inte
Page 203 and 204: TAU Target Acquisition and tracking
Page 205: ACKNOWLEDGMENTS The mission of 4G A
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