G. Hunter – författare

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 individual quantum events to be studied, and this opens possibilities for challenges to the orthodox interpretation to be realised.

This volume contains the proceedings of a symposium held in honour of Jean-Pierre Vigier at York University, Toronto, Canada, in August 1997. The topics of the contributions range from quantum mechanics and its interpretation, to particle physics, electromagnetic theory, relativity and gravity, and the relationship between inertia and the zero-point electromagnetic oscillations that constitute the vacuum. The 52 articles are arranged under the following categories: astrophysics - cosmology, the Aharonov-Bohm effect, electrodynamics, gravitation and inertia, light and photons, mathematical physics, particle physics and quantum theory.

The Hubble radius to the Planck scale is the precise scope of 55 contributions to a symposium held at UC Berkeley in honour of J-P. Vigier's (Nobel Laureate Louis de Broglie's principal associate) 80th birthday. The volume contains chapters by physicists and astrophysicists, which contrast both mainstream conservative approaches and leading-edge extended models of fundamental issues in physical theory and observation.

This volume contains the proceedings of a symposium held in honour of Jean-Pierre Vigier at York University, Toronto, Canada, in August 1997. The topics of the contributions range from quantum mechanics and its interpretation, to particle physics, electromagnetic theory, relativity and gravity, and the relationship between inertia and the zero-point electromagnetic oscillations that constitute the vacuum. The fifty-two articles are arranged under the following categories: astrophysics-cosmology, the Aharonov-Bohm effect, electrodynamics, gravitation and inertia, light and photons, mathematical physics, particle physics and quantum theory. Audience: This book will be of interest to graduate-level students and researchers.

THE PRESENT STATUS OF THE QUANTUM THEORY OF LIGHT In August of 1995, a group of over 70 physicists met at York University for a three-day symposium in honour of Professor Jean-Pierre Vigier. The attendance included theoretical and experimental physicists, mathematicians, astronomers and colleagues concerned with issues in the philosophy of science. The symposium was entitled "The Present Status of the Quantum Theory of Light" in accordance with Professor Vigier's wishes but in fact encompassed many of the areas to which Professor Vigier has contributed over his long and distinguished career. These include stochastic interpretations of quantum mechanics, particle physics, and electromagnetic theory. The papers presented at the symposium have been arranged in this proceedings in the following approximate order: 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. These interpretations reject the account given in purely probabilistic terms and which deems individual quantum events to be acausal and not amenable to any analysis in space-time terms. As is well known, Einstein and others also rejected the purely statistical account of quantum mechanics. As stressed by Professor Vigier at the symposium, the current experimental situation now allows for the first time for individual quantum events to be studied, e. g.