book

Antenna and Array Technologies for Future Wireless Ecosystems

by Yingjie Jay Guo, Richard W. Ziolkowski

August 2022

Intermediate to advanced

512 pages

18h 48m

English

Wiley-IEEE Press

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1.1 Introduction1.2 Typologies of Pixels1.3 Flat Optics Analysis1.4 Multiscale Analysis and Synthesis1.5 Dual Polarization1.6 Beam Shaping1.7 Limit of Aperture Efficiency and High‐Gain Examples1.8 Wideband and Limit of Bandwidth‐Gain Product1.9 Multibeam and Multi‐frequency1.10 ConclusionsAcknowledgmentsReferences
2.1 Introduction2.2 Luneburg Lens Designs2.3 Gain Enhancement Approaches for Antennas and Arrays2.4 Reconfigurable Liquid Metal‐Based SIW Phase Shifter2.5 SummaryReferences
3.1 Introduction3.2 Beam‐Reconfigurable Antenna Using Active Frequency Selective Surfaces3.3 Beam‐Reconfigurable Antenna Using Parasitic Elements3.4 1‐Bit Reflectarray and Transmitarray3.5 Beam‐Switching and Multi‐Beam Lens3.6 Beam‐Reconfigurable Array Using Tunable Dielectrics3.7 Other Techniques to Realize a Beam‐Reconfigurable High‐Directivity Antenna3.8 SummaryReferences

4.1 Leaky‐Wave Antennas for Efficient Wireless Systems4.2 Low‐Cost Printed‐Circuit Frequency‐Scanning LWAs4.3 LWAs for Efficient Communications in Iridescent Wireless Networks4.4 LWAs Applied for Localization in Practical Wireless Networks4.5 LWAs for Efficient Wireless Power Transfer4.6 ConclusionReferences
5.1 Introduction5.2 High‐Volume Manufacturing of an AiP Module5.3 Design Consideration5.4 Testing AiP5.5 Three AiP Examples5.6 Concluding RemarksReferences
6.1 Introduction6.2 Printing with 3D Printers from Formlabs6.3 Measurement Platforms for Lens Antennas6.4 Pixel Design of the Discrete Dielectric Lenses6.5 Integration of a Dielectric Polarizer with a Lens for CP Radiation6.6 Design, Fabrication, and Testing of THz Lens Antennas6.7 SummaryAcknowledgmentReferences
7.1 Introduction7.2 Configuration of Photonics‐Based Antenna Beamforming Utilizing the RoF Technique7.3 Two‐Dimensional (4 × 2) Antenna Array Integrated with Photodiodes for 60 GHz Band Applications7.4 Compact Antenna Module Integrated with Photodiodes to Achieve a Flexible Array Pattern7.5 Direct Delay Control for Beamforming by Variable Optical Delay Devices with 10 Gbit/s Class Data Transmission7.6 Antenna Array Beamforming Using a 1.3‐μm Band EML as the Light Source7.7 Perspectives7.8 Estimation of the Direction of a User Terminal7.9 SummaryAbbreviationsReferences
8.1 Introduction8.2 Design Methods: Classical Array Factor8.3 Embedded Element Patterns8.4 Approximate Analysis Methods: The Lossless, Resonant, Minimum Scattering Approximation8.5 Exact Design Methods: Full‐Wave Computational Electromagnetics Modeling8.6 Receive‐Only Systems8.7 An Open Question Around EEPs8.8 ConclusionsReferencesNotes
9.1 Introduction9.2 Popular Hybrid Structures of Large‐Scale Antenna Arrays9.3 AoA Estimation – State of the Art9.4 Fast and Accurate AoA Estimation Techniques for Large‐Scale Arrays of Phased Subarrays9.5 Fast and Accurate AoA Estimation9.6 ConclusionsReferencesNotes
10.1 Introduction10.2 ESA Figures of Merit10.3 Overcoming Conventional ESA Stigmas and Trade‐Offs10.4 More Complex Electrically Small NFRP Antennas10.5 Directive Electrically Small NFRP Antennas10.6 Forward Looking ESA Applications10.7 SummaryAcknowledgmentsReferences
11.1 Introduction11.2 Electric‐Field Strength: EIT (On Resonant and Stark Shift)11.3 Uncertainties11.4 Detection of AM and FM Modulated Signals11.5 Phase Detection and Phase Modulated Signal Detection11.6 RF Power Measurements11.7 Voltage Measurements11.8 Other Applications: RF Camera, Angle‐of‐Arrival, Waveform Analyzer, Plasma Measurements, and Thermometry11.9 Conclusion and DiscussionReferences
12.1 The Rise of Quantum Technologies12.2 Quantum Antenna Array Theory12.3 Photon Statistics12.4 Linear Array of Quantum Emitters12.5 Isotropic Single‐Photon Sources12.6 Quantum Superdirectivity?12.7 Quantum Antenna Array Technologies12.8 Forward‐Looking DirectionsReferences