Preface | p. ix |
The Authors | p. xi |
Introduction | p. 1 |
Ad Hoc Networks: A Preamble | p. 1 |
Characteristics of Ad Hoc Networks | p. 2 |
Some Prospective Usages of Ad Hoc Networks | p. 3 |
Some Research Challenges | p. 5 |
Use of Smart Antennas in Ad Hoc Networks | p. 5 |
Media Access Control | p. 6 |
Routing | p. 6 |
Power Conservation | p. 7 |
Security | p. 8 |
Performance Evaluation Techniques | p. 8 |
Organization of the Book | p. 9 |
References | p. 10 |
The Issues and Challenges in Designing MAC and Routing Protocols | p. 13 |
Media Access Control Techniques | p. 13 |
MAC Protocols with Omni-Directional Antennas | p. 15 |
MAC Protocols with Directional Antennas | p. 19 |
oRTS/oCTS-Based DMAC | p. 21 |
DRTS/oCTS-Based DMAC | p. 21 |
DRTS/DCTS-Based DMAC | p. 21 |
Other DMAC Protocols | p. 22 |
Power-Controlled MAC | p. 24 |
Power-Control Schemes Using Omni-Directional Antennas | p. 24 |
Power-Control Schemes Using Directional Antennas | p. 25 |
Routing Protocols in Ad Hoc Wireless Networks | p. 27 |
Routing Protocols Using Omni-Directional Antennas | p. 27 |
Reactive Routing Protocols | p. 27 |
Proactive Routing Protocols | p. 35 |
Routing Protocols Using Directional Antennas | p. 38 |
Performance Evaluation Techniques | p. 41 |
Simulation-Based Evaluation | p. 42 |
Comparison of Routing Performance | p. 42 |
Comparison of MAC Performance | p. 44 |
Evaluation Using a Testbed | p. 45 |
References | p. 48 |
Location Tracking and Media Access Control Using Smart Antennas | p. 55 |
Introduction | p. 55 |
Introduction to Smart Antennas | p. 57 |
Features of Smart Antennas | p. 58 |
Classification of Smart Antennas | p. 59 |
ESPAR: A Smart Antenna for Wireless Ad Hoc Networks | p. 59 |
Issues of Smart Antennas in the Context of Wireless Ad Hoc Networks | p. 64 |
Location-Tracking Mechanisms for Neighborhood Discovery | p. 65 |
Directional Media Access Control Protocols | p. 66 |
A Few Assumptions and the Rationales | p. 68 |
Performance Evaluation | p. 71 |
Simulation Environment | p. 71 |
Results | p. 72 |
Discussion | p. 76 |
References | p. 76 |
Location Tracking and Location Estimation of Nodes in Ad Hoc Networks: A Testbed Implementation | p. 79 |
Introduction | p. 79 |
Location Tracking and Neighborhood Discovery | p. 82 |
Formation of the NLST (Neighborhood Link State Table) | p. 82 |
Formation of the AST (Angle Signal Table) | p. 83 |
Location Estimation | p. 84 |
Basic Idea | p. 84 |
Location Estimation by a Node Using a Pair of Reference Nodes | p. 86 |
Synchronization of an Antenna by a Nonprimary Reference Node | p. 87 |
Formation of the Post-Synchronization Mapping (PM) Table | p. 89 |
Estimating Location of a Node Multi-Hop Away from Reference Nodes | p. 90 |
Implementation Results | p. 91 |
Two-Node Setting: Evaluating Location Tracking | p. 91 |
Five-Node Setting: Single-Hop Location Estimations with Two Reference Nodes | p. 93 |
Five-Node Setting: Multi-Hop Location Estimations with Secondary Reference | p. 95 |
Error in Location Estimation: A Simulation Study | p. 98 |
Discussion | p. 99 |
References | p. 100 |
A Routing Strategy for Effective Load Balancing Using Smart Antennas | p. 101 |
Introduction | p. 101 |
System Description | p. 105 |
Some Important Definitions | p. 105 |
Network Awareness | p. 109 |
Formation of AST and NANL | p. 110 |
Formation of ANL | p. 111 |
Formation of GLST | p. 112 |
Network-Aware Routing with Maximally Zone-Disjoint Shortest Path | p. 113 |
Maximally Zone-Disjoint Shortest-Path Routing | p. 114 |
Finding the Maximally Zone-Disjoint Shortest Path: An Analysis | p. 116 |
Adaptive Route Selection | p. 118 |
Maximally Zone-Disjoint Multipath Routing | p. 119 |
Multipath Routing Using Omni-Directional and Directional Antennas | p. 119 |
Selecting Maximally Zone-Disjoint Multipath Routes | p. 123 |
Performance Evaluation | p. 124 |
Simulation Environment | p. 124 |
Impact of Overhead | p. 124 |
Evaluation under Static Scenarios | p. 128 |
Evaluation under Mobile Scenarios | p. 130 |
Discussion | p. 132 |
References | p. 133 |
Priority-Based QoS Routing Protocols Using Smart Antennas | p. 135 |
Introduction | p. 135 |
A Few Related Definitions | p. 138 |
Priority-Based QoS Routing Using Zone Reservation | p. 139 |
Zone Reservation and Route Computation by High-Priority Flows | p. 140 |
Route Computation and Adaptive Call Blocking by Low-Priority Flows | p. 141 |
Route Computation without Call Blocking | p. 141 |
Route Computation with Call Blocking | p. 142 |
Performance Evaluation | p. 143 |
Effectiveness of Zone-Reservation Protocol | p. 144 |
Effectiveness of the Call-Blocking Scheme | p. 145 |
Priority-Based Flow-Rate Control for QoS Provisioning Using Feedback Control | p. 150 |
A Control-Theoretic Approach | p. 154 |
Some Preliminaries on Proportional-Integral-Derivative (PID) Control | p. 154 |
Priority-Based Flow Control Strategies Using a PID Controller | p. 155 |
Priority-Based Flow-Control Scheme Using Directional Antennas | p. 159 |
Detecting and Measuring High-Priority Flow Rates by Other Flows | p. 159 |
Feedback Control of Low-Priority Flow Rate | p. 163 |
Performance Evaluation | p. 164 |
Performance of Low-Priority-Flow-Controller (LPC) | p. 165 |
Evaluating the System Performance in Random Topology | p. 170 |
Service Differentiation in Multi-Hop Intervehicular Communication | p. 173 |
Routing in an Unbounded Network | p. 173 |
Bounded versus Unbounded Networks | p. 174 |
Application-Dependent Route Discovery Process | p. 175 |
Implementation of Prioritized Routing Scheme in IVC Scenario | p. 176 |
Route Computation and Zone Reservation by High-Priority Flows | p. 176 |
Route Computation and Adaptive Call Blocking by Low-Priority Flows | p. 177 |
Discussion | p. 178 |
References | p. 180 |
Conclusion | p. 183 |
Index | p. 187 |
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