MIMO Wireless Communications

Author: Ezio Biglieri; Robert Calderbank; Anthony Constantinides  

Publisher: Cambridge University Press‎

Publication year: 2007

E-ISBN: 9780511258459

P-ISBN(Paperback): 9780521873284

Subject: TN925 Radio relay communication, microwave communication

Keyword: 无线通信

Language: ENG

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MIMO Wireless Communications

Description

Multiple-input multiple-output (MIMO) technology constitutes a breakthrough in the design of wireless communications systems, and is already at the core of several wireless standards. Exploiting multipath scattering, MIMO techniques deliver significant performance enhancements in terms of data transmission rate and interference reduction. This 2007 book is a detailed introduction to the analysis and design of MIMO wireless systems. Beginning with an overview of MIMO technology, the authors then examine the fundamental capacity limits of MIMO systems. Transmitter design, including precoding and space-time coding, is then treated in depth, and the book closes with two chapters devoted to receiver design. Written by a team of leading experts, the book blends theoretical analysis with physical insights, and highlights a range of key design challenges. It can be used as a textbook for advanced courses on wireless communications, and will also appeal to researchers and practitioners working on MIMO wireless systems.

Chapter

1.5 MIMO in wireless networks

1.5.1 MIMO in cellular networks

1.5.2 MIMO in ad hoc networks

Distributed MIMO

1.6 MIMO in wireless standards

1.7 Organization of the book and future challenges

1.8 Bibliographical notes

References

2 Capacity limits of MIMO systems

2.1 Introduction

2.2 Mutual information and Shannon capacity

2.2.1 Mathematical definition of capacity

2.2.2 Time-varying channels

2.2.3 Multi-user channels

2.3 Single-user MIMO

2.3.1 Channel and side information model

Perfect CSIR and/or CSIT

Perfect CSIR and CDIT

CDIT and CDIR

2.3.2 Constant MIMO channel capacity

2.3.3 Fading MIMO channel capacity

Capacity with perfect CSIT and perfect CSIR

Capacity with perfect CSIR and CDIT: ZMSW model

Capacity with perfect CSIR and CDIT: CMI, CCI and QCI models

Multiple-input single-output channels

Multiple-input multiple-output channels

Capacity with CDIT and CDIR: ZMSW model

Capacity with CDIT and CDIR: CCI model

Capacity with correlated fading

Frequency-selective fading channels

Training for multiple antenna systems

Application to matrix channels

2.3.4 Open problems in single-user MIMO

2.4 Multi-user MIMO

2.4.1 System model

2.4.2 MIMO multiple-access channel

Multiple-access channel capacity

Constant channel

Fading channels

2.4.3 MIMO broadcast channel

Broadcast channel capacity

Dirty paper coding achievable rate region

MAC–BC duality

Constant channel capacity

Fading channels

Sub-optimal methods

2.4.4 Open problems in multi-user MIMO

2.5 Multi-cell MIMO

2.5.1 Multi-cell MIMO without base-station cooperation

2.5.2 Multi-cell MIMO with base-station cooperation

2.5.3 System level issues

2.6 MIMO for ad hoc networks

2.6.1 The relay channel

2.6.2 The interference channel

2.6.3 Cooperative communication

Perfect CSIR and CSIT

Perfect CSIR and CDIT

Diversity–multiplexing trade-offs

2.7 Summary

2.8 Bibliographical notes

References

3 Precoding design

3.1 Transmit channel side information

3.1.1 The MIMO channel

3.1.2 Methods of obtaining CSIT

3.1.3 A dynamic CSIT model

3.2 Information-theoretic foundation for exploiting CSIT

3.2.1 Value of CSIT in MIMO systems

3.2.2 Optimal signaling with CSIT

3.3 A transmitter structure

3.3.1 Encoding structure

Space–time block codes

3.3.2 Linear precoding structure

3.4 Precoding design criteria

3.4.1 Information and system capacity

3.4.2 Error exponent

3.4.3 Pairwise error probability

PEP per-distance criterion

Average PEP criterion

3.4.4 Detection mean-squared error

3.4.5 Criteria grouping

3.5 Linear precoder designs

3.5.1 Optimal precoder input-shaping matrix

3.5.2 Precoding on perfect CSIT

Optimal beam directions

Optimal power allocation

3.5.3 Precoding on correlation CSIT

Optimal beam directions

Optimal power allocation

Group one

Group two

3.5.4 Precoding on mean CSIT

Optimal beam directions

Optimal power allocation

Group one

Group two

3.5.5 Precoding on both mean and correlation CSIT

Group one precoder

Group two precoder

3.5.6 Discussion

3.6 Precoder performance results and discussion

Specific simulation parameters

3.6.1 Performance results

Perfect CSIT

Correlation CSIT

Mean and correlation CSIT

3.6.2 Discussion

3.7 Applications in practical systems

3.7.1 Channel acquisition methods

Open-loop methods

Closed-loop methods

Overhead in MIMO CSIT acquisition

3.7.2 Codebook design in closed-loop systems

3.7.3 The role of channel information at the receiver

3.7.4 Precoding in emerging wireless standards

3.8 Conclusion

3.8.1 Other types of CSIT

3.8.2 Open problems in exploiting CSIT

3.8.3 Summary

3.9 Bibliographical notes

Appendix 3.1

References

4 Space–time coding for wireless communications: principles and applications

4.1 Introduction

4.2 Background

4.2.1 Broadband wireless channel model

4.2.2 Transmit diversity

4.2.3 Diversity order

4.2.4 Rate–diversity trade-off

4.3 Space–time coding principles

4.3.1 Space–time code design criteria

4.3.2 Space–time trellis codes (STTC)

4.3.3 Space–time block codes (STBC)

4.3.4 A new non-linear maximum-diversity quaternionic code

4.3.5 Diversity-embedded space–time codes

Linear diversity-embedded codes

Code example

Non-linear diversity-embedded codes

4.4 Applications

4.4.1 Signal processing

Channel estimation for quasi-static channels

Integration of equalization and decoding

Adaptive techniques

Non-coherent techniques

4.4.2 Applications of diversity-embedded codes

4.4.3 Interactions with network layers

Multiple access: interference cancellation

Integration of physical, link, and transport layers

Network utility maximization (NUM)

4.5 Discussion and future challenges

4.6 Bibliographical notes

Appendix 4.1 Algebraic structure: quadratic forms

References

5 Fundamentals of receiver design

5.1 Introduction

5.2 Reception of uncoded signals

5.2.1 Linear receivers

5.2.2 Decision-feedback receivers

5.2.3 Sphere detection

5.3 Factor graphs and iterative processing

5.3.1 Factor graphs

The Iverson function

5.3.2 Examples of factor graphs

Tanner graphs

TWLK (Tanner–Wiberg–Loeliger–Koetter) graphs

Factor graph of a dispersive channel

Factor graph of a MIMO channel

5.3.3 The sum–product algorithm

A simple example

Scheduling

5.3.4 Factor graph with cycles: iterative algorithms

5.3.5 Factor graphs and receiver structures

Decoding over a general channel

Equalizing a dispersive channel

5.4 MIMO receivers for uncoded signals

5.4.1 Linear interfaces

Zero-forcing interface

Linear MMSE interface

5.4.2 Linear interfaces with nonlinear processing

Zero-forcing V-BLAST

LMMSE V-BLAST

5.5 MIMO receivers for coded signals

5.5.1 Iterative sum–product algorithm

5.5.2 Low-complexity approximations

Message approximation: hard and soft decisions

5.5.3 EXIT-charts

EXIT-charts of decoders

EXIT-charts of demappers

No approximation

Interference cancelers with linear filtering

EXIT-chart convergence analysis

An example

5.5.4 Quasi-static channel

5.6 Some iterative receivers

5.6.1 MMSE+IC receiver

5.6.2 IC+MMSE receiver

5.6.3 Numerical results

5.7 Bibliographical notes

References

6 Multi-user receiver design

6.1 Introduction

6.2 Multiple-access MIMO systems

6.2.1 Signal and channel models

DS/CDMA signaling

6.2.2 Canonical receiver structure

6.2.3 Basic MUD algorithms

Space–time matched filter/rake receiver

Decorrelating (zero-forcing) receiver

MMSE receiver

6.2.4 Digital receiver implementation

6.3 Iterative space–time multi-user detection

6.3.1 System model

6.3.2 Iterative linear space–time multi-user detection

6.3.3 Iterative nonlinear space–time multi-user detection

Cholesky iterative decorrelating decision-feedback ST MUD

Multistage interference canceling ST MUD

6.3.4 EM-based iterative space–time multi-user detection

6.3.5 Simulation results

6.3.6 Summary

6.4 Multi-user detection in space–time coded systems

6.4.1 Signal model

6.4.2 Joint ML multi-user detection and decoding for space–time coded multi-user systems

6.4.3 Partitioned low-complexity receivers for space–time coded multi-user systems

Decorrelator-based partitioned space–time multi-user receiver

Linear MMSE-based partitioned space–time multi-user receiver

Iterative MUD with interference cancellation for space–time coded CDMA

Iterative MUD with interference cancellation and instantaneous MMSE filtering for space–time coded multi-user systems

6.4.4 Single-user soft-input soft-output space–time map decoder

6.4.5 Summary

6.5 Adaptive linear space–time multi-user detection

6.5.1 Diversity multi-user detection versus space–time multi-user detection

Linear diversity multi-user detector

Linear space–time multi-user detector

6.5.2 Adaptive linear space–time multi-user detection for flat-fading CDMA

Signal model

Batch blind linear space–time multi-user detection

Adaptive blind linear space–time multi-user detection

6.5.3 Blind adaptive space–time multi-user detection for asynchronous CDMA in fading multi-path channels

Signal model

Blind MMSE space–time multi-user detection

Blind sequential Kalman channel estimation

Algorithm summary

6.5.4 Simulation results

6.6 Summary

6.7 Bibliographical notes

References

Bibliography

Index

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