Engineered Materials and Metamaterials: Design and Fabrication

Author:   Richard A. Dudley ,  Michael A. Fiddy
Publisher:   SPIE Press
ISBN:  

9781510602151


Pages:   226
Publication Date:   30 May 2017
Format:   Paperback
Availability:   In Print   Availability explained
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Engineered Materials and Metamaterials: Design and Fabrication


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Author:   Richard A. Dudley ,  Michael A. Fiddy
Publisher:   SPIE Press
Imprint:   SPIE Press
Weight:   0.428kg
ISBN:  

9781510602151


ISBN 10:   1510602151
Pages:   226
Publication Date:   30 May 2017
Audience:   Professional and scholarly ,  Professional & Vocational
Format:   Paperback
Publisher's Status:   Active
Availability:   In Print   Availability explained
This item will be ordered in for you from one of our suppliers. Upon receipt, we will promptly dispatch it out to you. For in store availability, please contact us.

Table of Contents

Preface Acknowledgments 1 Introduction 1.1 Historical Perspective 1.2 Basic Electromagnetic Properties of Materials 1.3 Maxwell's Equations 1.4 Differential Form of Maxwell's Equations 1.4.1 Polarization 1.4.2 Conductivity 1.4.3 Dispersion 1.4.4 Permittivity 1.4.5 Birefringence 1.4.6 Permeability 1.4.7 Index of refraction 1.4.8 A phenomenological description of refractive index 1.5 The Six Velocities of Light 1.5.1 Free-space velocities 1.5.2 Waves in a medium 1.5.3 Superluminal speeds References 2 Material Properties 2.1 Material Classification 2.2 Metals 2.2.1 Drude model 2.3 Dielectrics 2.3.1 Lorentz oscillator model 2.3.2 Kramers–Kronig relations 2.3.3 Semiconductors 2.3.4 Debye relaxation model 2.3.5 Nonlinear dispersion 2.4 Equivalent Circuit Overview 2.4.1 Impedance 2.4.2 Capacitance 2.4.3 Inductance 2.4.4 RLC descriptions References 3 Meta-atoms 3.1 Overview 3.2 Meta-atom Building Blocks 3.2.1 Spherical particles: dipole response 3.2.2 Spherical particles: resonant response 3.3 Metal Resonators 3.3.1 The first metallic metamaterial 3.4 Split-Ring Resonators 3.4.1 SRR equivalent circuit theory 3.4.2 SRR size limitations 3.4.3 SRR geometrical scaling 3.4.4 SRR scaling considerations 3.5 Constitutive Parameter Estimation 3.6 Metasurfaces References 4 Composite Media and Effective Medium Approximations 4.1 Composite Media 4.1.1 Spherical particles 4.1.2 Birefringent materials 4.1.3 Homogenization 4.2 Form-Birefringent Metamaterials 4.2.1 Other limitations of EMAs 4.2.2 Bounds for effective permittivity 4.3 Summary References 5 Anisotropic Microwave Metamaterials 5.1 Form-Birefringent Materials: A Case Study 5.1.1 Gigantic anisotropies 5.1.2 Inexpensive higher-index microwave metamaterials 5.1.3 Tunable negative group delay 5.2 Example Microwave Material 5.2.1 High-index materials: a case study 5.2.2 Physical mechanisms References 6 Negative Index 6.1 History of Negative Index 6.1.1 Principle of least action 6.1.2 Re-radiation from a negative-index material 6.1.3 Double-negative material (DNM) possibilities 6.1.4 The 'perfect' lens 6.1.5 Evanescent amplification revisited 6.1.6 Pendry's negative-index formalism 6.1.7 A rigorous solution to the 'perfect' lens 6.2 Graphical Examples of Wave Propagation References 7 Numerical Simulations 7.1 Frequency-Dependent Numerical Models 7.2 Negative-Index Properties and Computational Restrictions 7.2.1 Practical discussion of 'exactly' n = –1 7.2.2 Segmented metamaterials References 8 Making Smaller Structures: Optical Metamaterials 8.1 Material Challenges 8.2 Plasma Waves and Plasmonics 8.2.1 Bulk polaritons: the Drude model 8.2.2 Surface plasmon-polaritons 8.3 Optical Metamaterials 8.4 Hyperbolic Metamaterials 8.4.1 Photonic density of states References 9 Optical Materials and Fabrication Challenges 9.1 Thin Films 9.2 Thin Dielectric Gaps between Metal Surfaces 9.3 Fabrication Methods and Challenges 9.3.1 Electron beam lithography 9.3.2 Dry etching 9.4 Process Impact of Reactive Ion Etching and E-Beam Lithography 9.4.1 Metal deposition and lift-off process 9.4.2 Focused-ion meam (FIB) milling 9.5 Focused Ion Beam Challenges 9.5.1 Interference lithography 9.5.2 Nanoimprint lithography (NIL) 9.5.3 Fabrication of multilayer structures 9.5.4 Two-photon photo-polymerization (TPP) technology References 10 Superresolved Imaging 10.1 Superresolution Using Metamaterials: a Case Study 10.2 The Inverse-Scattering Problem 10.3 Degrees of Freedom 10.4 Numerical Examples 10.5 Perfect Imaging 10.6 Slab Imaging Example 10.7 Compressive Sampling References Index

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