Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

The London Edinburgh and Dublin Philosophical Magazine and Journal of Science

XXIII.A mechanical theory of wave mechanics and quantum mechanics

A. Korn

Published Feb 1, 1933• 0 citations
Publisher
DOI
10.1080/14786443309462180

Related papers

The Wave Theory of Quantum Mechanics

College Physics•Sep 16, 2026•0 citations

Scattering Theory in Quantum Mechanics: Physical Principles and Mathematical Methods

J.A.D. Matthew

Werner O Amrein, Josef M Jauch and Kalyan Sinha Reading, Massachusetts: W A Benjamin 1911 pp xxiii + 691 price $17.50 (paperback) The late Professor J M Jauch and his coworkers in Geneva have published an authoritative account of the mathematical foundations of quantum mechanical scattering theory in terms of functional analysis in Hilbert space. Following an extensive mathematical introduction, scattering theory is first approached from a timedependent viewpoint before moving to the time-independent methods that are most useful in practical application.

Physics Bulletin•Dec 1, 1978•25 citations

A short course on quantum mechanics and methods of quantization

Elisa Ercolessi

These notes collect the lectures given by the author to the "XXIII International Workshop on Geometry and Physics" held in Granada (Spain) in September 2014. The first part of this paper aims at introducing a mathematical oriented reader to the realm of Quantum Mechanics (QM) and then to present the geometric structures that underline the mathematical formalism of QM which, contrary to what is usually done in Classical Mechanics (CM), are usually not taught in introductory courses. The mathematics related to Hilbert spaces and Differential Geometry are assumed to be known by the reader. In the second part, we concentrate on some quantization procedures, that are founded on the geometric structures of QM — as we have described them in the first part — and represent the ones that are more operatively used in modern theoretical physics. We will discuss first the so-called Coherent State Approach which, mainly complemented by "Feynman Path Integral Technique", is the method which is most widely used in quantum field theory. Finally, we will describe the "Weyl Quantization Approach" which is at the origin of modern tomographic techniques, originally used in optics and now in quantum information theory.

International Journal of Geometric Methods in Modern Physics•Jun 2, 2015•4 citations

The physical interpretation of wave mechanics. I

Ludwig J�nossy

Foundations of Physics•Jun 1, 1973•18 citations

XXIII. On an apparatus to illustrate the interference of two plane waves

Charles Josiah Woodward

The London Edinburgh and Dublin Philosophical Magazine and Journal of Science•Sep 1, 1877•0 citations

I. Atomic Theory and Wave Mechanics

Niels Bohr•Jan 1, 1985•0 citations
Werner O Amrein, Josef M Jauch and Kalyan Sinha Reading, Massachusetts: W A Benjamin 1911 pp xxiii + 691 price $17.50 (paperback) The late Professor J M Jauch and his coworkers in Geneva have published an authoritative account of the mathematical foundations of quantum mechanical scattering theory in terms of functional analysis in Hilbert space. Following an extensive mathematical introduction, scattering theory is first approached from a timedependent viewpoint before moving to the time-independent methods that are most useful in practical application.
These notes collect the lectures given by the author to the "XXIII International Workshop on Geometry and Physics" held in Granada (Spain) in September 2014. The first part of this paper aims at introducing a mathematical oriented reader to the realm of Quantum Mechanics (QM) and then to present the geometric structures that underline the mathematical formalism of QM which, contrary to what is usually done in Classical Mechanics (CM), are usually not taught in introductory courses. The mathematics related to Hilbert spaces and Differential Geometry are assumed to be known by the reader. In the second part, we concentrate on some quantization procedures, that are founded on the geometric structures of QM — as we have described them in the first part — and represent the ones that are more operatively used in modern theoretical physics. We will discuss first the so-called Coherent State Approach which, mainly complemented by "Feynman Path Integral Technique", is the method which is most widely used in quantum field theory. Finally, we will describe the "Weyl Quantization Approach" which is at the origin of modern tomographic techniques, originally used in optics and now in quantum information theory.