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More About This Title Wireless Mesh Networks
English
Written by authors with vast experience in academia and industry, Wireless Mesh Networks provides its readers with a thorough overview and in-depth understanding of the state-of-the-art in wireless mesh networking. It offers guidance on how to develop new ideas to advance this technology, and how to support emerging applications and services. The contents of the book follow the TCP/IP protocol stack, starting from the physical layer. Functionalities and existing protocols and algorithms for each protocol layer are covered in depth. The book is written in an accessible textbook style, and contains supporting materials such as problems and exercises to assist learning.
Key Features:
- Presents an in-depth explanation of recent advances and open research issues in wireless mesh networking, and offers concrete and comprehensive material to guide deployment and product development
- Describes system architectures and applications of wireless mesh networks (WMNs), and discusses the critical factors influencing protocol design
- Explores theoretical network capacity and the state-of-the-art protocols related to WMNs
- Surveys standards that have been specified and standard drafts that are being specified for WMNs, in particular the latest standardization results in IEEE 802.11s, 802.15.5, 802.16 mesh mode, and 802.16 relay mode
- Includes an accompanying website with PPT-slides, further reading, tutorial material, exercises, and solutions
Advanced students on networking, computer science, and electrical engineering courses will find Wireless Mesh Networks an essential read. It will also be of interest to wireless networking academics, researchers, and engineers at universities and in industry.
English
Dr. Ian F. Akyildiz is Ken Byers Distinguished Chair Professor in Telecommunications, School of Electrical and Computer Engineering, Georgia Institute of Technology, and Director of the Broadband and Wireless Networking Laboratory. Current research interests are Sensor Networks, InterPlanetary Internet, Wireless Networks, Satellite Networks and Next Generation Internet. ?Ian has published over 200 journal and conference papers, is Editor-in-Chief of Computer Networks and Ad Hoc Networks Journals (Elsevier), and an Editor for ACM-Kluwer Journal of Wireless Networks. Ian is an IEEE Fellow (1996) with the citation: "For contributions to performance analysis of computer communication networks," and an ACM Fellow (1997) "for fundamental research contributions in: finite capacity queuing network models; performance evaluation of Time Warp parallel simulations; traffic Control in ATM networks, and mobility management in wireless networks".
Dr. Xudong Wang is Senior Research Engineer at KIYON Inc., where he conducts research and development of MAC, routing, and transport protocols for wireless mesh networks. Research interests also include software radios, cross-layer design, communication protocols for cellular networks, mobile ad hoc networks, sensor networks, and ultra-wideband networks. He has two patents pending in wireless mesh networks. He is technical committee member of several international conferences, has been a reviewer for numerous international journals, and is guest editor for the Special Issue on Wireless Mesh Networking in IEEE Wireless Communications.
English
Preface
1 Introduction
1.1 Network Architecture
1.2 Characteristics
1.3 Application Scenarios
1.4 Critical Design Factors
2 Physical Layer
2.1 Adaptive Coding/Modulation and Link Adaptation
2.2 Directional Antennas and Multi-Antenna Systems
2.2.1 Directional Antenna
2.2.2 Antenna Diversity and Smart Antenna
2.3 Cooperative Diversity and Cooperative Communications
2.4 Multi-Channel Systems
2.5 Advanced Radio Technologies
2.5.1 Frequency Agile Radios and Cognitive Radios
2.5.2 Reconfigurable Radios and Software Radios
2.6 Integrating Different Advanced Techniques: IEEE 802.11n
2.6.1 The Protocol Reference Model of the Physical Layer
2.6.2 PLCP Sublayer
2.6.3 PMD Sublayer
2.6.4 PLME Sublayer
2.7 Open Research Issues
3 Medium Access Control Layer
3.1 Single Channel MAC Protocols
3.1.1 CSMA/CA Improvements
3.1.2 IEEE 802.11e
3.1.3 WMN MAC Based on IEEE 802.11s
3.1.4 TDMA over CSMA/CA
3.1.5 IEEE 802.16 MAC in Mesh Mode
3.1.6 MAC for UWB WMNs
3.1.7 CDMA MAC
3.2 Multi-Channel MAC Protocols
3.2.1 Single-Radio MAC Protocol
3.2.2 Slotted Seeded Channel Hopping (SSCH) MAC
3.2.3 Multi-Radio MAC Protocol
3.2.4 Multi-Radio 2-Phase Protocol
3.2.5 Channel Assignment in the MAC Layer
3.2.6 Dynamic Frequency Selection (DFS) Requirements
3.3 Open Research Issues
4 Network Layer
4.1 Routing Challenges
4.2 Design Principles
4.3 Topology Discovery for Routing
4.4 Performance Parameters
4.5 Routing Metrics
4.5.1 Hop-Count
4.5.2 Per-Hop RTT
4.5.3 Per-Hop Packet Pair Delay
4.5.4 Expected Transmission Count (ETX)
4.5.5 Expected Transmission on a Path (ETOP)
4.5.6 Expected Transmission Time (ETT) and Weighted Cumulative ETT
(WCETT)
4.5.7 Effective Number of Transmissions (ENT)
4.5.8 Metric of Interference and Channel-Switching (MIC)
4.5.9 Bottleneck Link Capacity (BLC)
4.5.10 Expected Data Rate (EDR)
4.5.11 Low Overhead Routing Metric
4.5.12 Airtime Cost Routing Metric
4.5.13 Remaining Issues
4.6 Categories of Routing Protocols
4.6.1 Hop-count based routing
4.6.2 Link-level QoS routing
4.6.3 End-to-end QoS routing
4.6.4 Reliability-aware routing
4.6.5 Stability-aware routing
4.6.6 Power-efficient routing
4.6.7 Scalable routing
4.7 Hop-Count Based Routing Protocols
4.7.1 Light client management routing (LCMR) protocol
4.7.2 Orthogonal rendezvous routing (ORR) protocol
4.7.3 HEAT Protocol
4.8 Link-Level QoS Based Routing Protocols
4.8.1 Link Quality Source Routing (LQSR) Protocol
4.8.2 Multi-radio LQSR (MR-LQSR) Routing Protocol
4.8.3 ExOR Routing Protocol
4.8.4 AODV-spanning tree (AODV-ST) protocol
4.9 Interference Based Routing: IRMA
4.10 Routing with Load Balancing
4.11 Routing Based on Residual Link Capacity
4.12 End-to-End QoS Routing
4.12.1 Quality aware routing protocol
4.12.2 RingMesh Routing Protocol
4.12.3 Bandwidth reservation routing protocol
4.13 Reliability Based Routing: Multi-Path Routing
4.13.1 Resilient OpportunisticMesh Routing(ROMER) protocol
4.13.2 Simple Two-Path Routing Protocol
4.13.3 Multi-Path Mesh (MMESH) Routing protocol
4.14 Stability Based Routing
4.15 Scalable Routing
4.15.1 Hierarchical Routing
4.15.2 Geographic Routing
4.16 Multi-Channel Routing Protocols
4.16.1 Joint Channel Assignment and Routing
4.16.2 Distributed Joint Channel and Routing Protocol
4.17 Open Research Issues
5 Transport Layer
5.1 Challenges of a Transport Layer Protocol in Wireless Environments
5.2 Transport Layer Protocols for Multihop Ad Hoc Networks
5.2.1 Protocols for Reliable Data Transport
5.2.2 Protocols for Real-Time Delivery
5.3 Transport Layer Protocols for WMNs
5.3.1 Transport Protocols Based on Hop-by-Hop Control
5.3.2 DCCP for WMNs
5.4 Open Research Issues
6 Network Security
6.1 Security Attacks in WMNs
6.2 Counter-Attack Measures
6.3 Security Schemes in Related Wireless Networks
6.3.1 Security of IEEE 802.11Wireless LANs
6.3.2 Security of IEEE 802.16Wireless MANs
6.3.3 Security of Mobile Ad Hoc Networks
6.4 Security Mechanisms forWMNs
6.4.1 Features and Challenges of A SecureWMN
6.4.2 Security of IEEE 802.11sWMN
6.4.3 Future Directions
6.5 Multi-Layer Design for WMN Security
6.5.1 Research Issues in the Multi-Layer Security
7 Network Control and Management
7.1 Mobility Management
7.1.1 Mobility Management in Related Wireless Networks
7.1.2 Mobility Management in WMNs
7.1.3 Open Research Issues
7.2 Power Management
7.2.1 Power Management in Related Wireless Networks .
7.2.2 Power Management in WMNs
7.2.3 Open Research Issues
7.3 Topology Control and Management
7.3.1 Topology Control and Management in Related Wireless Networks
7.3.2 Topology Control and Management in WMNs
7.4 Timing Synchronization
7.5 Traditional Network Management Functions
8 Network Capacity
8.1 Capacity Analysis
8.1.1 Notations and Terms
8.1.2 Capacity of Ad Hoc Networks without Mobility
8.1.3 Capacity of Mobile Ad Hoc Networks
8.1.4 Capacity of Ad Hoc Networks with Infrastructure Support
8.2 Capacity and Delay Tradeoff
8.2.1 The need of capacity-delay tradeoff
8.2.2 Analytical Models and Definitions
8.2.3 Definitions of Throughput-Delay Optimality
8.2.4 Throughput-Delay Tradeoff in Static Networks
8.2.5 Throughput-Delay Tradeoff in Mobile Networks
8.2.6 Open Research Issues
8.3 Applicability of Asymptotic Capacity Analysis to WMNs
9 Cross-Layer Design
9.1 Motivations of Cross-Layer Design
9.1.1 Layered Design versus Cross-Layer Design
9.1.2 Cross-Layer Design in WMNs
9.2 Cross-Layer Design Protocols and Optimization Algorithms
9.2.1 General Methodology of Cross-Layer Design
9.2.2 MAC/Physical Cross-Layer Design
9.2.3 Routing/MAC Cross-Layer Design
9.2.4 Transport/Physical Cross-Layer Design
9.2.5 Joint Optimization Algorithms Across Multiple Protocol Layers
9.3 Prudent Use of Cross-Layer Design
10 Standards on Wireless Mesh Networks
10.1 Overview of IEEE 802Working Groups forWireless Networks
10.2 Overview of Industry Alliance/Forum for DifferentWireless Technologies
10.3 Standards for MeshedWireless LANs
10.3.1 Overview of IEEE 802.11 Standard Activities
10.3.2 IEEE 802.11s
10.4 Standards for MeshedWireless PANs
10.4.1 Overview of IEEE 802.15 Standard Activities
10.4.2 IEEE 802.15.5
10.4.3 UWB-Based MeshedWireless PANs
10.4.4 Remaining Issues in Standards for Meshed Wireless PANs
10.5 Standards for MeshedWireless MANs
10.5.1 Overview of IEEE 802.16 Standard Activities
10.5.2 IEEE 802.16 Mesh Mode
10.5.3 IEEE 802.16j
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