Electromagnetic metamaterials : transmission line theory and microwave applications : the engineering approach

Select an Action

Place Hold(s)
Add to My Lists
Email
Print

Title:

Personal Author:

Caloz, Christophe, 1969-

Publication Information:

Hoboken, NJ : John Wiley and Sons, 2006

ISBN:

9780471669852

Subject Term:

Magnetic materials

Nanostructured materials

Microwave transmission lines

Added Author:

Itoh, Tatsuo

Available:*

Library	Item Barcode	Call Number	Material Type	Item Category 1	Status
Searching... PSZ JB	30000004586206	TK454.4.M3 C34 2006	Open Access Book	Book	Searching... Unknown

Summary

Electromagnetic metamaterials-from fundamental physics to advanced engineering applications

This book presents an original generalized transmission line approach associated with non-resonant structures that exhibit larger bandwidths, lower loss, and higher design flexibility. It is based on the novel concept of composite right/left-handed (CRLH) transmission line metamaterials (MMs), which has led to the development of novel guided-wave, radiated-wave, and refracted-wave devices and structures.

The authors introduced this powerful new concept and are therefore able to offer readers deep insight into the fundamental physics needed to fully grasp the technology. Moreover, they provide a host of practical engineering applications.

The book begins with an introductory chapter that places resonant type and transmission line metamaterials in historical perspective. The next six chapters give readers a solid foundation in the fundamentals and practical applications:

Fundamentals of LH MMs describes the fundamental physics and exotic properties of left-handed metamaterials TL Theory of MMs establishes the foundations of CRLH structures in three progressive steps: ideal transmission line, LC network, and real distributed structure Two-Dimensional MMs develops both a transmission matrix method and a transmission line method to address the problem of finite-size 2D metamaterials excited by arbitrary sources Guided-Wave Applications and Radiated-Wave Applications present a number of groundbreaking applications developed by the authors The Future of MMs sets forth an expert view on future challenges and prospects

This engineering approach to metamaterials paves the way for a new generation of microwave and photonic devices and structures. It is recommended for electrical engineers, as well as physicists and optical engineers, with an interest in practical negative refractive index structures and materials.

Author Notes

Christophe Caloz, PhD, is a Professor at the Ecole Polytechnique de Montreal and a member of the university's Poly-Grames Research Center
Tatsuo Itoh, PhD, is Professor in the Electrical Engineering Department of the University of California, Los Angeles

Preface	p. xiii
Acknowledgments	p. xv
Acronyms	p. xvii
1 Introduction	p. 1
1.1 Definition of Metamaterials (MTMs) and Left-Handed (LH) MTMs	p. 1
1.2 Theoretical Speculation by Viktor Veselago	p. 3
1.3 Experimental Demonstration of Left-Handedness	p. 4
1.4 Further Numerical and Experimental Confirmations	p. 9
1.5 "Conventional" Backward Waves and Novelty of LH MTMs	p. 10
1.6 Terminology	p. 12
1.7 Transmission Line (TL) Approach	p. 12
1.8 Composite Right/Left-Handed (CRLH) MTMs	p. 16
1.9 MTMs and Photonic Band-Gap (PBG) Structures	p. 17
1.10 Historical "Germs" of MTMs	p. 20
References	p. 22
2 Fundamentals of LH MTMs	p. 27
2.1 Left-Handedness from Maxwell's Equations	p. 28
2.2 Entropy Conditions in Dispersive Media	p. 33
2.3 Boundary Conditions	p. 38
2.4 Reversal of Doppler Effect	p. 39
2.5 Reversal of Vavilov-Cerenkov Radiation	p. 41
2.6 Reversal of Snell's Law: Negative Refraction	p. 43
2.7 Focusing by a "Flat LH Lens"	p. 46
2.8 Fresnel Coefficients	p. 48
2.9 Reversal of Goos-Hanchen Effect	p. 50
2.10 Reversal of Convergence and Divergence in Convex and Concave Lenses	p. 51
2.11 Subwavelength Diffraction	p. 53
References	p. 57
3 TL Theory of MTMs	p. 59
3.1 Ideal Homogeneous CRLH TLs	p. 59
3.1.1 Fundamental TL Characteristics	p. 60
3.1.2 Equivalent MTM Constitutive Parameters	p. 67
3.1.3 Balanced and Unbalanced Resonances	p. 70
3.1.4 Lossy Case	p. 74
3.2 LC Network Implementation	p. 79
3.2.1 Principle	p. 79
3.2.2 Difference with Conventional Filters	p. 83
3.2.3 Transmission Matrix Analysis	p. 85
3.2.4 Input Impedance	p. 100
3.2.5 Cutoff Frequencies	p. 103
3.2.6 Analytical Dispersion Relation	p. 106
3.2.7 Bloch Impedance	p. 113
3.2.8 Effect of Finite Size in the Presence of Imperfect Matching	p. 115
3.3 Real Distributed 1D CRLH Structures	p. 119
3.3.1 General Design Guidelines	p. 120
3.3.2 Microstrip Implementation	p. 122
3.3.3 Parameters Extraction	p. 124
3.4 Experimental Transmission Characteristics	p. 127
3.5 Conversion from Transmission Line to Constitutive Parameters	p. 131
References	p. 131
4 Two-Dimensional MTMs	p. 133
4.1 Eigenvalue Problem	p. 134
4.1.1 General Matrix System	p. 134
4.1.2 CRLH Particularization	p. 138
4.1.3 Lattice Choice, Symmetry Points, Brillouin Zone, and 2D Dispersion Representations	p. 139
4.2 Driven Problem by the Transmission Matrix Method (TMM)	p. 143
4.2.1 Principle of the TMM	p. 144
4.2.2 Scattering Parameters	p. 145
4.2.3 Voltage and Current Distributions	p. 147
4.2.4 Interest and Limitations of the TMM	p. 154
4.3 Transmission Line Matrix (TLM) Modeling Method	p. 154
4.3.1 TLM Modeling of the Unloaded TL Host Network	p. 155
4.3.2 TLM Modeling of the Loaded TL Host Network (CRLH)	p. 158
4.3.3 Relationship between Material Properties and the TLM Model Parameters	p. 159
4.3.4 Suitability of the TLM Approach for MTMs	p. 161
4.4 Negative Refractive Index (NRI) Effects	p. 162
4.4.1 Negative Phase Velocity	p. 162
4.4.2 Negative Refraction	p. 163
4.4.3 Negative Focusing	p. 165
4.4.4 RH-LH Interface Surface Plasmons	p. 167
4.4.5 Reflectors with Unusual Properties	p. 169
4.5 Distributed 2D Structures	p. 170
4.5.1 Description of Possible Structures	p. 171
4.5.2 Dispersion and Propagation Characteristics	p. 173
4.5.3 Parameter Extraction	p. 178
4.5.4 Distributed Implementation of the NRI Slab	p. 183
References	p. 190
5 Guided-Wave Applications	p. 192
5.1 Dual-Band Components	p. 193
5.1.1 Dual-Band Property of CRLH TLs	p. 193
5.1.2 Quarter-Wavelength TL and Stubs	p. 197
5.1.3 Passive Component Examples: Quadrature Hybrid and Wilkinson Power Divider	p. 201
5.1.3.1 Quadrature Hybrid	p. 201
5.1.3.2 Wilkinson Power Divider	p. 202
5.1.4 Nonlinear Component Example: Quadrature Subharmonically Pumped Mixer	p. 205
5.2 Enhanced-Bandwidth Components	p. 210
5.2.1 Principle of Bandwidth Enhancement	p. 211
5.2.2 Rat-Race Coupler Example	p. 215
5.3 Super-compact Multilayer "Vertical" TL	p. 217
5.3.1 "Vertical" TL Architecture	p. 219
5.3.2 TL Performances	p. 221
5.3.3 Diplexer Example	p. 225
5.4 Tight Edge-Coupled Coupled-Line Couplers (CLCs)	p. 227
5.4.1 Generalities on Coupled-Line Couplers	p. 228
5.4.1.1 TEM and Quasi-TEM Symmetric Coupled-Line Structures with Small Interspacing: Impedance Coupling (IC)	p. 228
5.4.1.2 Non-TEM Symmetric Coupled-Line Structures with Relatively Large Spacing: Phase Coupling (PC)	p. 232
5.4.1.3 Summary on Symmetric Coupled-Line Structures	p. 233
5.4.1.4 Asymmetric Coupled-Line Structures	p. 234
5.4.1.5 Advantages of MTM Couplers	p. 235
5.4.2 Symmetric Impedance Coupler	p. 235
5.4.3 Asymmetric Phase Coupler	p. 245
5.5 Negative and Zeroth-Order Resonator	p. 249
5.5.1 Principle	p. 249
5.5.2 LC Network Implementation	p. 251
5.5.3 Zeroth-Order Resonator Characteristics	p. 253
5.5.4 Circuit Theory Verification	p. 256
5.5.5 Microstrip Realization	p. 258
References	p. 259
6 Radiated-Wave Applications	p. 261
6.1 Fundamental Aspects of Leaky-Wave Structures	p. 262
6.1.1 Principle of Leakage Radiation	p. 262
6.1.2 Uniform and Periodic Leaky-Wave Structures	p. 266
6.1.2.1 Uniform LW Structures	p. 266
6.1.2.2 Periodic LW Structures	p. 268
6.1.3 Metamaterial Leaky-Wave Structures	p. 269
6.2 Backfire-to-Endfire (BE) Leaky-Wave (LW) Antenna	p. 270
6.3 Electronically Scanned BE LW Antenna	p. 275
6.3.1 Electronic Scanning Principle	p. 276
6.3.2 Electronic Beamwidth Control Principle	p. 277
6.3.3 Analysis of the Structure and Results	p. 279
6.4 Reflecto-Directive Systems	p. 282
6.4.1 Passive Retro-Directive Reflector	p. 283
6.4.2 Arbitrary-Angle Frequency Tuned Reflector	p. 286
6.4.3 Arbitrary-Angle Electronically Tuned Reflector	p. 287
6.5 Two-Dimensional Structures	p. 290
6.5.1 Two-Dimensional LW Radiation	p. 290
6.5.2 Conical-Beam Antenna	p. 292
6.5.3 Full-Space Scanning Antenna	p. 296
6.6 Zeroth Order Resonating Antenna	p. 297
6.7 Dual-Band CRLH-TL Resonating Ring Antenna	p. 300
6.8 Focusing Radiative "Meta-Interfaces"	p. 304
6.8.1 Heterodyne Phased Array	p. 305
6.8.2 Nonuniform Leaky-Wave Radiator	p. 310
References	p. 313
7 The Future of MTMs	p. 316
7.1 "Real-Artificial" Materials: the Challenge of Homogenization	p. 316
7.2 Quasi-Optical NRI Lenses and Devices	p. 319
7.3 Three-Dimensional Isotropic LH MTMs	p. 323
7.4 Optical MTMs	p. 328
7.5 "Magnetless" Magnetic MTMs	p. 329
7.6 Terahertz Magnetic MTMs	p. 330
7.7 Surface Plasmonic MTMs	p. 331
7.8 Antenna Radomes and Frequency Selective Surfaces	p. 338
7.9 Nonlinear MTMs	p. 339
7.10 Active MTMs	p. 341
7.11 Other Topics of Interest	p. 341
References	p. 342
Index	p. 347

Available:*

On Order

Summary

Summary

Author Notes

Table of Contents