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Noûs

Quantum, Space and Time--The Quest Continues, Studies and Essays in Honour of Louis de Broglie, Paul Dirac and Eugene Wigner

Roberto Torretti, Asım Orhan Barut, Alwyn van der Merwe, Jean Pierre Vigier

Published Sep 1, 1987• 2 citations
Publisher
DOI
10.2307/2215196

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Electron interferometry: Interferences between two electrons and a precision method of measuring decoherence

FRANZ HASSELBACH, Harald Kiesel, Peter Sonnentag

Louis de Broglie's discovery of the wave nature of matter 80 years ago and the subsequent development of quantum mechanics by Erwin Schrodinger, Werner Heisenberg and Paul Dirac solved many riddles of those days and determined physics of the whole 20th century. Yet, after this long time, matter wave interferometry is as up to date as it was in 1927 when Louis de Broglie's hypothesis was verified, e.g., by Davisson and Germer. Atom interferometry, ion interferometry and Bose-Einstein condensates are today's fascinating applications based on de Broglie's discovery. The focus of the present contribution are Hanbury Brown-Twiss anti-correlations (i.e. interferences between two fermions (electrons)) and the quantitative observation of decoherence by electron biprism interferometry.

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Perspectives in Quantum Theory: Essays in Honor of Alfred Lande

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Born, de Broglie, Wigner, Bondi, Popper, and others of comparable stature here express their esteem for and his lifelong dedication to his science in a particularly appropriate way: by contributing to this book articles in which they operate at their deepest level of ongoing concern rather than by offering simple tributes or reminiscences. No better salute could be accorded to a man who, in his eighties, continues to operate at such a level himself.Some of the papers deal with the specific areas in which made important contributions to the theory of atomic structure in his younger days, such as the Lande g-factor so important to spectral analysis. Most of them, however, take up the larger issues of the nature of quantum reality and the consistency and completeness inherent in our descriptions of it.Lande was an early supporter of the Copenhagen of quantum phenomena, developed in the late 1920s by Bohr and Heisenberg. This depends on a fundamental duality in which the wave-like and particle-like aspects of matter and radiation are each regarded as necessary but partial views of reality, mutually complementing one another.In his later years, however, became increasingly dissatisfied with this interpretation and began to develop a unitary approach does not depend on this dualism. This was to lead to his demonstration that quantum theory, instead of being a set of enigmatic, though most successful, rules of calculation, can be understood as the logical consequence of a few almost self-evident postulates of symmetry and invariance. To Lande's own scientific conscience, the quantum riddle has found its solution. Even those who take a different point of view, including some of the contributors to this book, treat this solution with the respect its seriousness has earned.The contributors and their topics are as follows: Max Born: An Open Letter to Lande; Louis de Broglie: A New Interpretation Concerning the Coexistence of Waves and Particles; Hans-Jurgen Treder: The Einstein-Bohr Box Experiment; Eugene P. Wigner: Quantum-Mechanical Distribution Functions Revisited; Margenau and James L. Park: The Logic of Noncommutability of Quantum-Mechanical Operators--and Its Empirical Consequences; Alfred Kastler: How the Factor of an Atom Can Be Changed by Putting the Atom in a Radiofrequency Bath; David Bohm: Space-Time Geometry as an Abstraction from Spinor Ordering; Helmut Honl: A Contribution to the Thermodynamics of the Universe and to 3K Radiation; Dennis Caldwell and Henry Eyring: Quantum-Mechanical Rate Processes; O. Costa de Beauregard: Statistical Irreversibility and Quantized Wave Retardation; Fritz Bopp: The Internal Symmetries of Elementary Particles Resulting from the Geometric Structure of Lattice Space; Jean-Pierre Vigier: Hidden Parameter Theory; Karl R. Popper: Particle Annihilation and the Argument of Einstein, Podolsky, and Rosen; Walter M. Elsasser: Philosophical Dissonances in Quantum Mechanics; Leon Rosenfeld: Unphilosophical Considerations on Causality in Physics; Hermann Bondi: Logical Foundations in Physics; Andre Mercier: Forms of Determinism, Objectivity, and the Classification of Sciences; and Paul Bernays: Causality, Determinism, and Probability.

Journal of The Electrochemical Society•Jan 1, 1972•11 citations

Louis de Broglie's conception of physics

Georges Lochak

Foundations of Physics•Jan 1, 1993•2 citations
Louis de Broglie's discovery of the wave nature of matter 80 years ago and the subsequent development of quantum mechanics by Erwin Schrodinger, Werner Heisenberg and Paul Dirac solved many riddles of those days and determined physics of the whole 20th century. Yet, after this long time, matter wave interferometry is as up to date as it was in 1927 when Louis de Broglie's hypothesis was verified, e.g., by Davisson and Germer. Atom interferometry, ion interferometry and Bose-Einstein condensates are today's fascinating applications based on de Broglie's discovery. The focus of the present contribution are Hanbury Brown-Twiss anti-correlations (i.e. interferences between two fermions (electrons)) and the quantitative observation of decoherence by electron biprism interferometry.
Born, de Broglie, Wigner, Bondi, Popper, and others of comparable stature here express their esteem for and his lifelong dedication to his science in a particularly appropriate way: by contributing to this book articles in which they operate at their deepest level of ongoing concern rather than by offering simple tributes or reminiscences. No better salute could be accorded to a man who, in his eighties, continues to operate at such a level himself.Some of the papers deal with the specific areas in which made important contributions to the theory of atomic structure in his younger days, such as the Lande g-factor so important to spectral analysis. Most of them, however, take up the larger issues of the nature of quantum reality and the consistency and completeness inherent in our descriptions of it.Lande was an early supporter of the Copenhagen of quantum phenomena, developed in the late 1920s by Bohr and Heisenberg. This depends on a fundamental duality in which the wave-like and particle-like aspects of matter and radiation are each regarded as necessary but partial views of reality, mutually complementing one another.In his later years, however, became increasingly dissatisfied with this interpretation and began to develop a unitary approach does not depend on this dualism. This was to lead to his demonstration that quantum theory, instead of being a set of enigmatic, though most successful, rules of calculation, can be understood as the logical consequence of a few almost self-evident postulates of symmetry and invariance. To Lande's own scientific conscience, the quantum riddle has found its solution. Even those who take a different point of view, including some of the contributors to this book, treat this solution with the respect its seriousness has earned.The contributors and their topics are as follows: Max Born: An Open Letter to Lande; Louis de Broglie: A New Interpretation Concerning the Coexistence of Waves and Particles; Hans-Jurgen Treder: The Einstein-Bohr Box Experiment; Eugene P. Wigner: Quantum-Mechanical Distribution Functions Revisited; Margenau and James L. Park: The Logic of Noncommutability of Quantum-Mechanical Operators--and Its Empirical Consequences; Alfred Kastler: How the Factor of an Atom Can Be Changed by Putting the Atom in a Radiofrequency Bath; David Bohm: Space-Time Geometry as an Abstraction from Spinor Ordering; Helmut Honl: A Contribution to the Thermodynamics of the Universe and to 3K Radiation; Dennis Caldwell and Henry Eyring: Quantum-Mechanical Rate Processes; O. Costa de Beauregard: Statistical Irreversibility and Quantized Wave Retardation; Fritz Bopp: The Internal Symmetries of Elementary Particles Resulting from the Geometric Structure of Lattice Space; Jean-Pierre Vigier: Hidden Parameter Theory; Karl R. Popper: Particle Annihilation and the Argument of Einstein, Podolsky, and Rosen; Walter M. Elsasser: Philosophical Dissonances in Quantum Mechanics; Leon Rosenfeld: Unphilosophical Considerations on Causality in Physics; Hermann Bondi: Logical Foundations in Physics; Andre Mercier: Forms of Determinism, Objectivity, and the Classification of Sciences; and Paul Bernays: Causality, Determinism, and Probability.