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Volume 3 of The Enigmatic Photon develops the theory and practical applications of the B(3) field. The opening chapters are based on the Dirac equation of a single fermion in a circularly-polarized electromagnetic field, an equation which defines the way in which B(3) interacts with matter. These chapters predict the theoretical possibility of nuclear magnetic resonance at infrared and visible frequencies. The third chapter considers the optical Aharonov--Bohm effect due to B(3), and suggests a mechanism for action at a distance in electrodynamics. Subsequent chapters discuss the radiation theory of B(3) and relate it to the theory of fine photon mass. The final two chapters treat the theory of B(3) in cosmology and summarize future experimental developments. This book is a sequel to Volume 1, The Field B(3), which presents the first systematic description of the fundamental magnetizing field of electromagnetic radiation and Volume 2, Non-Abelian Electrodynamics, which deals with the development of the theory of the Evans--Vigier field B(3). Audience: This book will be useful to researchers whose work involves nuclear magnetic resonance.

This volume establishes the fact that electrodynamics is by no means a completely understood theory by bringing together several in-depth review papers from leading specialists. The major portion of the volume is built around the nonlinear structure which leads to the B(3) field introduced in the previous three volumes published. Audience: Specialists, graduate and senior undergraduate students in physics, chemistry and electrical engineering.

This volume contains the proceedings of a symposium held in honour of Jean-Pierre Vigier in Toronto, Canada, in August 1995. It encompasses many areas in which he has been active over the years, such as stochastic interpretations of quantum mechanics, particle physics and electromagnetic theory. The papers have been loosely ordered in the following categories: ideas about the nature of light and photons; electrodynamics; the formulation and interpretation of quantum mechanics; and aspects of relativity theory. Some of the papers presented deal with alternate interpretations of quantum phenomena in the tradition of Vigier, Bohm et al. The current experimental situation allows for the first time for individual quantum events to be studied, and this opens possibilities for challenges to the orthodox interpretation to be realised. Audience: This book will be of interest to graduate level students and researchers whose work involves quantum mechanics, electromagnetic theory, optics and optoelectronics.

See Menas Kafatos, Book Review, Foundations of Physics, V29, N6, pp. 1017-1018 (1999).