"In summary, Electromagnetic Fields in Unconventional Materials and Structures is an advanced book, written by experts, that is bound to be useful to serious researchers" (Int. Jnl. of Electronics and Communications, Vol.55, No.5, 2001)<br /> "Congratulations! The book is a pearl. It is like a treasury." (Optik - Int. Jnl. for Light & Electron Optics, Vol.112, No.19, 2001)

This book will shape the course of electromagnetics research for decades to come. Fourteen leading researchers from five countries reveal their latest research results in detail and review parallel developments. The topics discussed, though unconventional today, are destined to attract great attention as shrinking device sizes make electromagnetic effects ever more important.

These topics include the rotation of polarization of electric waves by a twisted structure; homogenization of linear bianistotropic composite materials; novel free-space techniques to characterize complex mediums; sculptured thin films; electrodynamic properties of carbon nanotubes; and more.

Electromagnetic Fields in Unconventional Materials and Structures:
* Focuses on geometry in both large and small scales
* Provides a blueprint for electromagnetics research at the turn of the century
* Features new results, comments, and prognostications on 21st century research
* Includes more than 150 illustrations as well as hundreds of charts, tables, and references
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Electromagnetic effects in unconventional structures and materials in electronics are becoming more important as device sizes shrink. This trend will continue, and as the use of these materials becomes more cost effective, there will be an increased need for a theoretical understanding of this subject.
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Scalar Hertz Potentials for Linear Bianisotropic Mediums (W. Weiglhofer).

Recent Developments in the Homogenization of Linear Bianisotropic Composite Materials (B. Michel).

Novel Free-Space Techniques to Characterize Complex Mediums (G. Borzdov).

A Mini-Review on Isotropic Chiral Mediums (A. Lakhtakia).

Sculptured Thin Films: Conception, Optical Properties, and Applications (V. Venugopal & A. Lakhtakia).

Electrodynamic Properties of Carbon Nanotubes (S. Maksimenko & G. Slepyan).

Numerical Analyses of Optical Propagation and Interaction in Nonlinear Photorefractive Materials (P. Banerjee & J. Jarem).

Some Multilayered and Other Unconventional Lightguides (P. Choudhury & O. Singh).

All-Fiber Guided Wave Components (B. Pal).

Electromagnetic Wave Propagation Through Helical Structures (P. Jain & B. Basu).

Indexes.
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This book will shape the course of electromagnetics research for decades to come. Fourteen leading researchers from five countries reveal their latest research results in detail and review parallel developments. The topics discussed, though unconventional today, are destined to attract great attention as shrinking device sizes make electromagnetic effects ever more important.

These topics include the rotation of polarization of electric waves by a twisted structure; homogenization of linear bianistotropic composite materials; novel free-space techniques to characterize complex mediums; sculptured thin films; electrodynamic properties of carbon nanotubes; and more.

Electromagnetic Fields in Unconventional Materials and Structures:
* Focuses on geometry in both large and small scales
* Provides a blueprint for electromagnetics research at the turn of the century
* Features new results, comments, and prognostications on 21st century research
* Includes more than 150 illustrations as well as hundreds of charts, tables, and references
Read more

Product details

ISBN
9780471363569
Published
2000-10-30
Publisher
John Wiley & Sons Inc
Weight
853 gr
Height
243 mm
Width
161 mm
Thickness
29 mm
Age
UU, UP, P, 05, 06
Language
Product language
Engelsk
Format
Product format
Innbundet
Number of pages
520

Biographical note

Onkar N. Singh is the editor of Electromagnetic Fields in Unconventional Materials and Structures, published by Wiley. Akhlesh Lakhtakia is Evan Pugh University Professor and Charles Godfrey Binder Professor of Engineering Science and Mechanics at the Pennsylvania State University. His research focuses on electromagnetic fields in complex materials, such as sculptured thin films, chiral materials, and bianisotropy.