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WORLD SCIENTIFIC eBooks

PART 4 Schrödinger's Mechanics

Published Dec 1, 2002• 0 citations
Publisher
DOI
10.1142/9789812776402_others04

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There has been much research on Schrodinger's route to what we now call Schrodinger's equation. Various authors disagree as to the exact nature of the influence of each of the physicists he cites—and of some that he does not. This paper, intended for graduate students of and researchers in quantum theory, clarifies Schrodinger's original aims in formulating a wave equation for matter, discusses how far he fulfilled his original aspirations and in what respects he fell short of his goal. An analysis of Schrodinger's foundational paper enables us to distinguish between a formal and an epistemological part, and consider the input of the physicists cited on the basis of the part in which each reference occurs. It turns out, for instance, that Hamilton's optical-mechanical analogy belongs entirely to the epistemological part. Indeed, no element of this analogy plays any role in the formal part of Schrodinger's argument. Instead of basing his theory on this analogy, as is often done nowadays in the physics literature and even in the history of science, we maintain that the aim of Schrodinger's project was to represent wave phenomena by a ‘wave’ in configuration- or q-space, paralleling Hertz's treatment in his Mechanics (1894). The influence of this book on Schrodinger's foundational paper is demonstrated by an analysis of his unpublished paper: Hertz's Mechanics and Einstein's Theory of Gravitation. This approach enables us to dispense with the optical-mechanical analogy in tracing the route to Schrodinger's equation. We also discuss the curious role of the Van Vleck determinant as the ‘missing link’ in taking the classical limit of Schrodinger's wavefunction. A concluding section discusses the relation of some of Schrodinger's earlier and later work to the development of quantum field theory.

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Volume 5 Erwin Schrödinger and the Rise of Wave Mechanics Part 1 Schrödinger in Vienna and Zurich 1887–1925

Jagdish Mehra, Helmut Rechenberg

Springer eBooks•Jan 1, 1987•10 citations
A review of The Historical Development of Quantum Theory, Volume 5; Erwin Schrödinger and the Rise of Wave Mechanics. Part 1 Schrödinger in Vienna and Zurich 1887–1925, and Part 2 The Creation of Wave Mechanics; Early Response and Applications. By Jagdish Mehra and Helmut Rechenberg. (Springer, 1987.) Part 1 [Pp. xviii+336.] £32·40 ISBN 3540 96284 0. Part 2 [Pp. 367–980]. £48·50. ISBN 3540 96377 4. This volume is dedicated to the memory of Erwin Schrödinger (1887–1961) on the centenary of his birth.
There has been much research on Schrodinger's route to what we now call Schrodinger's equation. Various authors disagree as to the exact nature of the influence of each of the physicists he cites—and of some that he does not. This paper, intended for graduate students of and researchers in quantum theory, clarifies Schrodinger's original aims in formulating a wave equation for matter, discusses how far he fulfilled his original aspirations and in what respects he fell short of his goal. An analysis of Schrodinger's foundational paper enables us to distinguish between a formal and an epistemological part, and consider the input of the physicists cited on the basis of the part in which each reference occurs. It turns out, for instance, that Hamilton's optical-mechanical analogy belongs entirely to the epistemological part. Indeed, no element of this analogy plays any role in the formal part of Schrodinger's argument. Instead of basing his theory on this analogy, as is often done nowadays in the physics literature and even in the history of science, we maintain that the aim of Schrodinger's project was to represent wave phenomena by a ‘wave’ in configuration- or q-space, paralleling Hertz's treatment in his Mechanics (1894). The influence of this book on Schrodinger's foundational paper is demonstrated by an analysis of his unpublished paper: Hertz's Mechanics and Einstein's Theory of Gravitation. This approach enables us to dispense with the optical-mechanical analogy in tracing the route to Schrodinger's equation. We also discuss the curious role of the Van Vleck determinant as the ‘missing link’ in taking the classical limit of Schrodinger's wavefunction. A concluding section discusses the relation of some of Schrodinger's earlier and later work to the development of quantum field theory.