Performance modeling and analysis of Bluetooth networks : polling, scheduling, and traffic control

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Title:

Personal Author:

Misic, Jelena

Publication Information:

Boca Raton, FL : Aeurbach Publications, 2006

ISBN:

9780849331572

Subject Term:

Bluetooth technology

Network performance (Telecommunication)

Added Author:

Misic, Vojislav B.

Available:*

Library	Item Barcode	Call Number	Material Type	Item Category 1	Status
Searching... PSZ JB	30000010107935	TK5103.3 M57 2006	Open Access Book	Book	Searching... Unknown
Searching... PSZ KL	30000010134772	TK5103.3 M57 2006	Open Access Book	Book	Searching... Unknown

Until now, developers and researchers interested in the design, operation, and performance of Bluetooth networks have lacked guidance about potential answers and the relative advantages and disadvantages of performance solutions.

Performance Modeling and Analysis of Bluetooth Networks: Polling, Scheduling, and Traffic Control summarizes the research on the performance of Bluetooth networks, including both piconets and scatternets, conducted since 2001. The book provides insights into the performance of Bluetooth networks through an analytical approach based upon queuing theory and discrete event simulation. It also proposes and validates solutions for common problems that are not covered by the official Bluetooth specifications.

This volume allows developers and researchers to enrich their knowledge of performance issues and become better equipped to solve problems related to the design, deployment, and operation of Bluetooth networks.

1 Introduction to Bluetooth	p. 1
1.1 Lower layers of the architecture: RF and baseband	p. 1
1.2 Higher layers of the architecture: LMP and L2CAP	p. 4
1.3 Data transport and link types	p. 5
1.4 Connection state and related modes	p. 9
1.5 Piconet formation: inquiry and paging	p. 12
2 Intra-piconet polling schemes	p. 15
2.1 Bluetooth communications and intra-piconet polling	p. 15
2.2 Classification of polling schemes	p. 17
2.3 On segmentation and reassembly policies	p. 22
2.4 Piconet model and performance indicators	p. 24
3 Analysis of polling schemes	p. 27
3.1 Performance of exhaustive service	p. 27
3.2 Performance of 1-limited service	p. 30
3.3 E-limited polling	p. 34
3.4 Access and downlink delay	p. 46
4 The impact of finite buffers	p. 53
4.1 Queue length distribution in imbedded Markov points	p. 54
4.2 Uplink queue length distribution	p. 61
4.3 Experimental results	p. 67
5 Admission control	p. 73
5.1 Admission control based on queue stability	p. 74
5.2 Admission control based on access delay	p. 77
5.3 Admission control based on cycle time	p. 79
6 Performance of TCP traffic	p. 83
6.1 System model and related work	p. 85
6.2 TCP window size	p. 87
6.3 Queueing analysis of the token bucket filter	p. 91
6.4 The outgoing queue at the baseband level	p. 96
6.5 Performance assessment	p. 102
7 Piconets with synchronous traffic	p. 109
7.1 Why the built-in SCO links are bad	p. 109
7.2 pSCO: an improved scheme for synchronous traffic	p. 112
7.3 Performance of the pSCO scheme	p. 114
8 Adaptive polling and predefined delay bounds	p. 129
8.1 Adaptive bandwidth allocation	p. 129
8.2 Adaptive polling with cycle control: the ACLS scheme	p. 133
8.3 ACLS performance	p. 138
8.4 Improving the performance of ACLS	p. 142
9 Scatternet formation	p. 147
9.1 Introduction	p. 147
9.2 BSF in single-hop networks	p. 152
9.3 BSF in multi-hop networks	p. 156
9.4 Conclusions	p. 171
10 Bridge topologies and scheduling	p. 173
10.1 Bridge topologies	p. 173
10.2 Approaches to bridge scheduling	p. 179
10.3 Bridge scheduling in practice	p. 184
10.4 The queueing model and traffic assumptions	p. 185
11 Rendezvous-based bridge scheduling	p. 189
11.1 MS bridge topology	p. 189
11.2 Packet delays: the MS bridge case	p. 197
11.3 Performance of the MS bridge	p. 202
11.4 SS bridge topology	p. 205
11.5 Packet delays: the SS bridge case	p. 215
11.6 Performance of the SS bridge	p. 217
12 Adaptive bridge scheduling	p. 223
12.1 Minimization of delays	p. 223
12.2 Adaptive management: the case of the MS bridge	p. 226
12.3 Adaptive management: the case of the SS bridge	p. 229
13 Walk-in bridge scheduling	p. 233
13.1 Scatternet model	p. 233
13.2 Service, vacation, and cycle times	p. 237
13.3 Calculating the packet delays	p. 248
13.4 Stability considerations	p. 251
13.5 Scalability	p. 255
14 Scatternet with finite buffers	p. 259
14.1 Scatternet model with finite buffers	p. 259
14.2 Uplink/downlink queue length distribution in Markov points	p. 262
14.3 Service, vacation, and cycle times	p. 265
14.4 Blocking probability and packet delays	p. 268
14.5 Simulation results	p. 276
A Probability generating functions and Laplace transforms	p. 287
References	p. 289
Index	p. 307

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Table of Contents