Localized Waves

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Edition: 1st
Format: Hardcover
Pub. Date: 2008-02-04
Publisher(s): Wiley-IEEE Press
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Summary

The 12 chapters of this book are authored by the most productive researchers in the field and will offer a well balanced presentation between theory and experiments in localized waves.

Author Biography

Hugo E. HernÁNdez-Figueroa, PhD, is a Full Professor in the School of Electrical and Computer Engineering of the State University of Campinas (UNICAMP), Brazil. He is a Senior Member of the IEEE, an Associate Editor of the IEEE/OSA Journal of Lightwave Technology, and a Member of the Editorial Board of the IEEE Transactions on Microwave Theory and Techniques. His research interests concentrate on a wide variety of wave electromagnetics phenomena and applications mainly in photonics and microwaves.

Michel Zamboni-Rached, PhD, is a Professor in the Centro de Ci?ncias Naturais e Humanas, Universidade Federal do ABC, Brazil. His research interests are electromagnetic field theory, theory and applications of localized waves (in electromagnetism, acoustics, and wave mechanics), optics, optical communications, and some topics in theoretical physics.

Erasmo Recami, PhD, has been a Professor of Physics (currently at Bergamo State University, Italy) for the past forty years. His current research includes the structure of leptons, tunneling times, the application of the GR methods to strong interactions, extended SR, and, in particular, the superluminal group velocities associated with evanescent waves and with the localized solutions to Maxwell's equations.

Table of Contents

Localized Waves: A Historical And Scientific Introduction
A General Introduction
Preliminary Remarks
A More Detailed Introduction
The Localized Solutions
A Historical (Theoretical and Experimental) Perspective
Introduction
Historical Recollections: Theory
The Particular X-Shaped Field Associated With a Superluminal Charge
A Glance at the Experimental State-Of-The-Art
References
Structure of The Nondiffracting Waves And Some Interesting Applications
Introduction
Spectral Structure of The Localized Waves And The Generalized Bidirectional Decomposition
The Generalized Bidirectional Decomposition
Closed Analytical Expressions Describing Some Ideal Nondiffracting Pulses
Finite Energy Nondiffracting Pulses
Space-Time Focusing Of X-Shaped Pulses
Focusing Effects By Using Ordinary X-Waves
Chirped Optical X-Type Pulses In Material Media
An Example: Chirped Optical X-Typed Pulse In Bulk Fused Silica
Modeling The Shape Of Stationary Wave Fields: Frozen Waves
Stationary Wave Fields With Arbitrary Longitudinal Shape In Lossless Media, Obtained By Superposing Equal-Frequency Bessel Beams
Increasing The Control On The Transverse Shape By Using Higher-Order Bessel Beams
Stationary Wave Fields With Arbitrary Longitudinal Shape In Absorbing Media: Extending The Method
Some Examples
References
Two Hybrid Spectral Representations and Their Applications To The Derivations Of Finite Energy Localized Waves And Pulsed Beams
Introduction
An Overview Of The Bidirectional And Superluminal
Spectral Representations
The Bidirectional Spectral Representation
Superluminal Spectral Representation
The Hybrid Spectral Representation And Its Application To
The Derivation Of Finite Energy X-Shaped Localized Waves
The Hybrid Spectral Representation
(3+1)-D Focus X Wave
(3+1)-D Finite-Energy X-Shaped Localized Waves
Modified Hybrid Spectral Representation And Its
Application To The Derivation Of Finite-Energy Pulsed Beams
The Modified Hybrid Spectral Representation
(3+1)-D Splash Modes And Focused Pulsed Beams
Conclusions
References
Ultrasonic Imaging With Limited-Diffraction Beams
INTRODUCTION
Fundamentals Of Limited Diffraction Beams
Applications Of Limited Diffraction Beams
Conclusion
References
Propagation-Invariant Fields: Rotationally Periodic And Anisotropic Nondiffracting Waves
Introduction
Brief Overview Of Propagation-Invariant Fields
Scope Of This Article
Rotationally Periodic Waves
Fourier Representation of general RPWs
Special propagation symmetries
Monochromatic waves
Pulsed single-mode waves
Superluminal single-mode wave
Subluminal single-mode wave
Luminal single-mode wave
Discussion
Nondiffracting Waves In Anisotropic
Crystals
Representation Of Anisotropic Nondiffracting Waves
Effects due to anisotropy
Acoustic generation of NDWs
Discussion
CONCLUSIONS
References
Bessel-X Waves Propagation (Dan
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