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Science & Technology Libraries

Quantum Mechanics and the Heisenberg Uncertainty Principle

Robert Shanafelt

Published Jun 21, 1995• 0 citations
Publisher

Abstract

This paper is an annotated bibliography of popular works on quantum mechanics and the Heisenberg uncertainty prinicple written by physicsts. The writings of 30 physicists are represented, beginning with the works of founders such as Planck, Einstein, Bohr, and Heisenberg, and ending with those of such contemporary figures as David Bohm, John S. Bell, Roger Penrose, and Stephen Hawking. In addition to the bibliographic annotations, this paper also includes an introduction, a brief historical review, and a description of importance dictionary, encyclopedia, and Internet resources.

DOI
10.1300/j122v15n01_06

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This paper is an annotated bibliography of popular works on quantum mechanics and the Heisenberg uncertainty prinicple written by physicsts. The writings of 30 physicists are represented, beginning with the works of founders such as Planck, Einstein, Bohr, and Heisenberg, and ending with those of such contemporary figures as David Bohm, John S. Bell, Roger Penrose, and Stephen Hawking. In addition to the bibliographic annotations, this paper also includes an introduction, a brief historical review, and a description of importance dictionary, encyclopedia, and Internet resources.
The original Schrödinger’s paper is translated and annotated in honour of the 70 −th anniversary of his Uncertainty Relation [will appear in Bulg.J.Phys.]. In the annotation it is shown that the Uncertainty Relation can be written in a complete compact canonical form. ANNOTATION by A. Angelow ++, M.-C. Batoni +++ The main reason to publish the original Schrödinger’s paper in English, is the fact that no one of the books on Quantum Mechanics cites it (see for example [1 †-15 †]). Actually, Schrödinger’s paper is chiefly based on the notes of the seminars of Physics-Mathematical Section of The Prussian Academy, where many famous physicists worked to establish the underlying basis of Quantum Theory. Being a kind of internal report, this work remained, for many years at a certain marginal distance from the physicist scientific awareness. Another argument in favour of its oblivion concerns the enthusiastic discussions, mostly about the physical interpretation of the uncertainty principle, rather than its mathematical straightforward derivation. After Schrödinger, the very first appearance of the new uncertainty
Quantum mechanics is one of the great success stories of modern physics, making sense of the very small just as Einstein's theory of relativity made sense of the very large. But, for most students, the ideas that make quantum mechanics powerful can be confusing and counterintuitive. This volume in the Greenwood Guides to Great Ideas in Science series provides a history of quantum mechanics from the early breakthroughs of Planck and Einstein, at the beginning of the 20th century, to the present frontiers of quantum computing and quantum gravity. The approach is entirely non-technical, and is aimed at the general reader who may not have much mathematical background but who has a strong curiosity about some of the most important developments in modern science. Quantum Mechanics: A Historical Perspectivetraces the history of this powerful theory, including: ; The early discoveries by Max Planck and Albert Einstein regarding the quantization of radiation ; The early quantum theory, including Neils Bohr's theory of the atom ; The birth of modern quantum mechanics through the work of Heisenberg, Schrodinger, Born, Dirac and others ; Applications of quantum mechanics in chemistry, nuclear physics, electronics, and many other areas ; Recent work in quantum computation and quantum information theory The book emphasizes the fact that despite the great success of quantum mechanics, many exciting intellectual frontiers remain open for further researchers to explore. It includes a glossary, a timeline, and a bibliography of accessible resources for further research.
This invaluable book takes the reader from Planck's discovery of the quantum in 1900 to the most recent interpretations and applications of nonrelativistic quantum mechanics. The introduction of the quantum idea leads off the prehistory of quantum mechanics, featuring Planck, Einstein, Bohr, Compton, and de Broglie's immortal contributions. Their original discovery papers are featured with explanatory notes and developments in Part 1. The invention of matrix mechanics and quantum mechanics by Heisenberg, Born, Jordan, Dirac, and Schrödinger is presented next, in Part 2. Following that, in Part 3, are the Einstein–Bohr debates on the interpretation of quantum mechanics culminating in Bell's inequality and Aspect's experiment demonstrating the actuality of the long range quantum correlations to which Einstein, Podolsky, and Rosen took great exception. Resolutions of quantum paradoxes and the current state of such debates are summarized. Part 4 presents a selection of the most dramatic modern developments, both theoretical and experimental. These include Feynman path integrals, the modern interpretation based on decoherence, quantum optics experiments leading to teleportation, DeWitt's wave function of the universe, and a brief introduction to the end-of-the-millennium prospects of quantum computation. A concluding chapter presents the authors' conjectures for the next 100 years of the quantum. This book is ideally suited to anyone with a junior level background in modern physics and quantum mechanics, and a cultural interest in the original sources of the greatest ideas of the greatest founders of this subject as derived from their first discovery papers. These papers have led, in giant strides across the whole of the twentieth century, to the revolutionary experimental advances of the last decade. The book makes accessible - physically and intellectually - both the deepest roots and the highest branches of nonrelativistic quantum physics
The paper begins with a brief account of classical theory of radiation and its failure to explain black body radiation.It is followed by the introduction of Quantum Theory of radiation by Max Planck.The dual nature of matter by de Broglie has been extensively dealt with.The uncertainty principle of Heisenberg has been critically discussed by many eminent authors who finally concluded it as one of the unavoidable mysteries of nature.As a picture speaks thousand words and as face is the index of the mind, the author has added pictures of eminent physicists at appropriate places.The subject matter of the paper will form a good text for any graduate students of Physics.
Quantum mechanics stands as one of the most profound and successful theories in the history of physics. This paper provides a comprehensive review of the foundational principles, mathematical formalism, and modern applications of quantum mechanics. Beginning with the historical development of the theory, we examine core postulates including wave-particle duality, the Heisenberg Uncertainty Principle, and the Schrödinger equation. We further explore quantum entanglement, quantum tunneling, and spin, and discuss their roles in cutting-edge technologies such as quantum computing, quantum cryptography, and quantum sensing. Diagrams and mathematical representations are included to aid conceptual clarity. This review aims to serve both as an educational reference and a bridge to current research frontiers.