The classical electromagnetism described by the Maxwell equations constitutes a fundamental law in contemporary physics. Even with the advent of sophisticated new materials, the principles of classical electromagnetism are still active in various applied areas in today's advanced communication techniques.

Physics of Classical Electromagnetism, by Minoru Fujimoto, is written with concise introductory arguments emphasizing the original field concept, with an aim at understanding objectives in modern information technology.

Following basic discussions of electromagnetism with a modernized approach, this book will provide readers with an overview of current problems in high-frequency physics. To further the reader's understanding of the concepts and applications discussed, each illustration within the book shows the location of all active charges, and the author has provided many worked-out examples throughout the book.

Physics of Classical Electromagnetism is intended for students in physics and engineering but will serve as a useful reference to graduate students and researchers in fields including but not limited to classical electrodynamics, electromagnetism, optics and lasers.

Minoru Fujimoto is (retired) Professor of Physics at the University of Guelph, Ontario, Canada. He is also the author of The Physics of Structural Phase Transitions (Springer, 2005).

Auteur
Minoru Fujimoto is retired Professor of Physics at the University of Guelph, Ontario, Canada.

Résumé
The Maxwell theory of electromagnetism was well established in the latter ni- teenth century, when H. R. Hertz demonstrated the electromagnetic wave. The theory laid the foundation for physical optics, from which the quantum concept emerged for microscopic physics. Einstein realized that the speed of electrom- netic propagation is a universal constant, and thereby recognized the Maxwell equations to compose a fundamental law in all inertial systems of reference. On the other hand, the pressing demand for ef?cient radar systems during WWII accelerated studies on guided waves, resulting in today's advanced telecommu- cation technology, in addition to a new radio- and microwave spectroscopy. The studies were further extended to optical frequencies, and laser electronics and - phisticated semi-conducting devices are now familiar in daily life. Owing to these advances, our knowledge of electromagnetic radiation has been signi?cantly - graded beyond plane waves in free space. Nevertheless, in the learning process the basic theory remains founded upon early empirical rules, and the traditional teaching should therefore be modernized according to priorities in the modern era. In spite of the fact that there are many books available on this well-established theme, I was motivated to write this book, reviewing the laws in terms of cont- porary knowledge in order to deal with modern applications. Here I followed two basic guidelines. First, I considered electronic charge and spin as empirical in the description of electromagnetism.

Contenu
Steady Electric Currents.- Steady Electric Currents.- Electrostatics.- Electrostatic Fields.- The Gauss Theorem.- The Laplace-Poisson Equations.- The Legendre Expansion of Potentials.- Electromagnetism.- The Ampère Law.- Magnetic Induction.- Scalar and Vector Potentials.- Inductances and Magnetic Energies.- Time-Dependent Currents.- Electromagnetic Waves.- Transmission Lines.- The Maxwell Equations.- Electromagnetic Radiation.- The Special Theory of Relativity.- Waves and Boundary Problems.- Guided Waves.- Coherent Waves and Radiation Quanta.- Waveguide Transmission.- Resonant Cavities.- Electronic Excitation of Cavity Oscillations.- Dielectric and Magnetic Responses in Resonant Electromagnetic Fields.- Laser Oscillations, Phase Coherence, and Photons.