Contents
1.1 Evolution of Wireless Networks
1.3 The ITU-R Requirements for IMT-Advanced Networks
1.3.1 Cell Spectral Efficiency
1.3.2 Peak Spectral Efficiency
1.3.4 Cell Edge User Spectral Efficiency
1.3.6 Rates per Mobility Class
1.3.7 Handover Interruption Time
2 Enabling Technologies for IMT-Advanced Networks
2.1 Multicarrier Modulation and Multiple Access
2.2 Multiuser Diversity and Scheduling
2.3 Adaptive Coding and Modulation
2.6 Multiple Antenna Techniques
2.9 Coordinated Multi-Point (CoMP) Transmission
2.9.1 Interference Cancellation
2.9.2 Single Point Feedback/Single Point Reception
2.9.3 Multichannel Feedback/Single Point Reception
2.9.4 Multichannel Feedback/Multipoint Reception
2.11 Inter-Technology Handovers
3.1.1 IEEE 802.16-2009 Air Interfaces
3.1.2 Protocol Reference Model
3.2.1 IEEE 802.16m Air Interface
3.3 Summary of Functionalities
3.3.3 QoS and Bandwidth Reservation
4 Frame Structure, Addressing and Identification
4.1 Frame Structure in IEEE 802.16-2009
4.1.2 FDD/HD-FDD Frame Structure
4.2 Frame Structure in IEEE 802.16j
4.2.1 Frame Structure in Transparent Relaying
4.2.2 Frame Structure in Non-Transparent Relaying
4.3 Frame Structure in IEEE 802.16m
4.3.2 Frame Structure Supporting IEEE 802.16-2009 Frames
4.4 Addressing and Connections Identification
4.4.1 Logical identifiers in IEEE 802.16-2009
4.4.2 Logical identifiers in IEEE 802.16j-2009
4.4.3 Logical identifiers in IEEE 802.16m
5 Network Entry, Initialization and Ranging
5.1 Network Entry in IEEE 802.16-2009
5.1.3 Periodic Ranging in OFDM
5.1.4 Periodic Ranging in OFDMA
5.2 Network Entry in IEEE 802.16j-2009
5.3 Network Entry in IEEE 802.16m
6 Quality of Service and Bandwidth Reservation
6.1.1 QoS Performance Measures
6.1.3 Signaling Bandwidth Requests and Grants
6.1.4 Bandwidth Allocation and Traffic Handling
6.2 Quality of Service in IEEE 802.16j
6.2.2 Signaling Bandwidth Requests and Grants
6.2.3 Bandwidth Allocation and Traffic Handling
6.3.3 Bandwidth Request and Grant
6.3.4 Bandwidth Allocation and Traffic Handling
7.1 Mobility Management in IEEE 802.16-2009
7.1.1 Acquiring Network Topology
7.2 Mobility Management in IEEE 802.16j-2009
7.2.1 MR-BS and RS Behavior during MS Handover
7.3 Mobility Management in IEEE 802.16m
7.3.4 Handovers in Relay, Femtocells and Multicarrier IEEE 802.16m Networks
8.1 Security in IEEE 802.16-2009
8.2 Security in IEEE 802.16j-2009
Part II LTE AND LTE-ADVANCED NETWORKS
9 Overview of LTE and LTE-Advanced Networks
9.1.1 The Radio Protocol Architecture
9.1.3 Support for Home eNBs (Femtocells)
9.2.2 UE States and State Transitions
9.2.3 Quality of Service and Bandwidth Reservation
10 Frame-Structure and Node Identification
10.1.1 Resource Block Structure
10.2 Frame-Structure in LTE-Advanced
10.3 LTE Identification, Naming and Addressing
11 UE States and State Transitions
11.1 Overview of a UE's State Transitions
11.2.2 Cell Selection and Reselection
11.2.4 Support for Manual CSG ID Selection
11.3 Acquiring System Information
11.4 Connection Establishment and Control
11.4.1 Random Access Procedure
11.4.2 Connection Establishment
11.4.3 Connection Reconfiguration
11.4.4 Connection Re-establishment
11.4.6 Leaving the RRC_CONNECTED State
11.5 Mapping between AS and NAS States
12 Quality of Service and Bandwidth Reservation
12.3 Signaling for Bandwidth Requests and Grants
12.4 Bandwidth Allocation and Traffic Handling
12.4.2 Hybrid Automatic Repeat Request
12.5.2 Coordinated Multipoint Transmission/Reception (CoMP)
12.5.3 Relaying in LTE-Advanced
13.2 Drivers and Limitations for Mobility Control
13.3 Mobility Management and UE States
13.3.1 IDLE State Mobility Management
13.3.2 CONNECTED State Mobility Management
13.4 Considerations for Inter RAT Mobility
13.5 CSG and Hybrid HeNB Cells
13.6 Mobility Management Signaling
14.2 LTE Security Architecture
14.4 State Transitions and Mobility
14.5 Procedures between UE and EPC Elements
14.5.1 EPS Authentication and Key Agreement (AKA)
14.5.2 Distribution of Authentication Data from HSS to Serving Network
14.5.3 User Identification by a Permanent Identity
15.1 Evolution of the IMT-Advanced Standards
15.2 Comparing Spectral Efficiency
15.4 Comparing Network Architectures
15.4.1 ASN/AN (E-UTRAN) and the MME and the S-GW
16 Coexistence and Inter-Technology Handovers
16.1.1 Types of Intersystem Interference
16.2.1 Approaches to Inter-Technology Mobility
16.2.2 Examples of Inter-Technology Access
17 Supporting Quality of Service
17.1.3 Opportunistic Algorithms
17.2 Scheduling in LTE and LTE-Advanced
17.2.2 Scheduling the Downlink
17.3 Quantitative Comparison between LTE and WiMAX
17.3.1 VoIP Scheduling in LTE and WiMAX
17.3.2 Power Consumption in LTE and WiMAX Base Stations
17.3.3 Comparing OFDMA and SC-FDMA
18.2 IMT-Advanced Market Outlook
18.2.4 The Backhaul Bottleneck
19.3 Cognitive Radio and Dynamic Spectrum
19.5 Access Network Architecture