<i>Compact Antennas for Wireless Communications and Terminals</i> deals with compact microwave antennas and, more specifically, with the planar version of these antennas. Planar antennas are the most appropriate type of antenna in modern communication systems and more generally in all applications r
MIMO Antennas for Wireless Communication: Theory and Design
β Scribed by Leeladhar Malviya, M. V. Kartikeyan, and Rajib Kumar Panigrahi
- Publisher
- CRC Press
- Year
- 2020
- Tongue
- English
- Leaves
- 222
- Category
- Library
No coin nor oath required. For personal study only.
β¦ Table of Contents
Cover
Half Title
Title Page
Copyright Page
Dedication
Contents
Foreword
Preface
Acknowledgments
Symbols
1. Introduction
1.1. Fundamentals of MIMO Antennas
1.2. Motivation and Scope
1.3. Organization of the Book
2. Theory of MIMO
2.1. Introduction
2.2. Wireless Channel Limitations
2.2.1. Fading
2.2.1.1. Large Scale Fading
2.2.1.2. Small Scale Fading
2.2.2. Effect of Interference on Channel Capacity
2.2.2.1. Co-Channel Interference and Capacity
2.2.2.2. Adjacent Channel Interference and Capacity
2.2.2.3. Power and Interference
2.3. Approaches to Improve Capacity
2.3.1. Cell Splitting
2.3.2. Sector Forming
2.3.3. Repeaters
2.3.4. Microcell Zones
2.4. Concluding Remarks
3. Applications of MIMO
3.1. Introduction
3.2. Functions of MIMO
3.3. Types of MIMO
3.4. Applications of MIMO
3.5. Concluding Remarks
4. MIMO Antenna Performance Criteria
4.1. Introduction
4.2. Performance Criteria of MIMO Antenna
4.2.1. Reflection Coeffcient and VSWR
4.2.2. Transmitted and Reflected Powers
4.2.3. Transmission Coeffcient
4.2.4. Envelope Correlation Coeffcient (ECC)
4.2.5. Total Active Re ection Coeffcient (TARC)
4.2.6. Channel Capacity
4.2.7. Mean Effective Gain (MEG)
4.2.8. Spectral Efficiency
4.2.9. MIMO Mode
4.3. Concluding Remarks
5. 5G Massive MIMO Technology
5.1. Introduction
5.2. Massive MIMO
5.3. Channel Estimation in Massive MIMO
5.4. Spatial Diversity/Multiplexing
5.5. Beamforming
5.5.1. Types of Beamforming Techniques
5.6. Advantages of Massive MIMO
5.7. Concluding Remarks
6. Mutual Coupling Reduction Techniques in MIMO Designs: An in-depth Survey
6.1. Introduction
6.2. Diversity Techniques
6.2.1. Space Diversity
6.2.2. Polarization Diversity
6.2.3. Pattern Diversity
6.3. Mutual Coupling Reduction Techniques
6.3.1. Parasitic Element/Structure Approach
6.3.2. Neutralization Line Approach
6.3.3. Slit and Slot Etching Approach
6.3.4. Coupling/Decoupling Structure Approach
6.3.5. Metamaterials Approach
6.3.6. Shorting Pins/Posts
6.3.7. Feeding Technique
6.3.8. Ground Branches/Utilization
6.4. MIMO Antenna Miniaturization Techniques
6.5. Concluding Remarks
7. Design and Analysis of Multi-Band Printed MIMO Antenna with Diversity and PSG
7.1. Introduction and Related Work
7.2. Multi-Band MIMO Antenna Design and Implementation
7.3. Simulation-Measurement Results and Discussion
7.4. Concluding Remarks
8. Design and Analysis of Wide-Band MIMO Antenna with Diversity and PEG
8.1. Introduction and Related Work
8.2. Wide-Band MIMO Antenna Design and Implementation
8.3. Simulation-Measurement Results and Discussion
8.4. Concluding Remarks
9. Design and Analysis of CP-MIMO Antenna for WLAN Application
9.1. Introduction and Related Work
9.2. CP-MIMO Antenna Design and Implementation
9.3. Simulation-Measurement Results and Discussion
9.4. Concluding Remarks
10. MIMO Antenna Designs with Diversity Techniques for LTE Applications
10.1. Introduction
10.2. Design and Analysis of C-Shaped Folded Loop MIMO Radiator
10.2.1. Introduction and Related Work
10.2.2. Folded Loop MIMO Antenna Design and Implementation
10.2.3. Simulation-Measurement Results and Discussion
10.3. Design and Analysis of Mathematically Inspired Dual Curved MIMO Radiator
10.3.1. Introduction and Related Work
10.3.2. MIMO Antenna Design and Implementation
10.3.3. Simulation-Measurement Results and Discussion
10.4. Concluding Remarks
11. MIMO Antenna Designs for WLAN/WiMAX Applications with 1 x 2 Power Divider Arms
11.1. Introduction
11.2. Design and Analysis of Pentagonal Shaped O set Planar MIMO for Omni-Directional Radiation Patterns
11.2.1. Introduction and Related Work
11.2.2. MIMO Antenna Design and Implementation
11.2.3. Simulation-Measurement Results and Discussion
11.3. Design and Analysis of Multi-Band MIMO with Very Compact Radiating Element
11.3.1. Introduction and Related Work
11.3.2. MIMO Antenna Design and Implementation
11.3.3. Simulation-Measurement Results and Discussion
11.4. Concluding Remarks
12. Concluding Remarks and Future Perspective
12.1. Contribution of the Book
12.2. Future Perspective
Bibliography
Index
π SIMILAR VOLUMES
This book assembles coverage on all aspects of MIMO technology along with up-to-date information on key related issues. Contributors from leading academic and industrial institutions across the globe share their expertise and lend the book a global perspective. They lead readers gradually from basic
<p><p>This practical resource offers a thorough examination of RF transceiver design for MIMO communications. Offering a practical view on MIMO wireless systems, this book extends fundamental concepts on classic wireless transceiver design techniques to MIMO transceivers. This helps reader gain a ve
<p><p>This practical resource offers a thorough examination of RF transceiver design for MIMO communications. Offering a practical view on MIMO wireless systems, this book extends fundamental concepts on classic wireless transceiver design techniques to MIMO transceivers. This helps reader gain a ve
<p>The Second Edition of <i>OFDM Baseband Receiver Design for Wirless Communications</i>, this book expands on the earlier edition with enhanced coverage of MIMO techniques, additional baseband algorithms, and more IC design examples. The authors cover the full range of OFDM technology, from theorie
A vital source of information for practising and aspiring wireless communication engineers, as well as for students at postgraduate and senior undergraduate levels. This book provides a fundamental grounding in the principles of antennas and propagation without excessive recourse to mathematics. It