Foundations of Quantum Mechanics I von G. Ludwig | ISBN 9783540116837

Foundations of Quantum Mechanics I

von G. Ludwig, aus dem Deutschen übersetzt von C.A. Hein
Buchcover Foundations of Quantum Mechanics I | G. Ludwig | EAN 9783540116837 | ISBN 3-540-11683-4 | ISBN 978-3-540-11683-7

Foundations of Quantum Mechanics I

von G. Ludwig, aus dem Deutschen übersetzt von C.A. Hein

Inhaltsverzeichnis

  • I The Problem: An Axiomatic Basis for Quantum Mechanics.
  • 1 The Axiomatic Formulation of a Physical Theory.
  • 2 The Fundamental Domain for Quantum Mechanics.
  • 3 The Measurement Problem.
  • II Microsystems, Preparation, and Registration Procedures.
  • 1 The Concept of a Physical Object.
  • 2 Selection Procedures.
  • 3 Statistical Selection Procedures.
  • 4 Physical Systems.
  • 4.1 Preparation Procedures.
  • 4.2 Registration Procedures.
  • 4.3 The Dependence of Registration upon Preparation.
  • 4.4 The Concept of a Physical System.
  • 4.5 The Structure of Probability Fields for Physical Systems.
  • III Ensembles and Effects.
  • 1 Combinations of Preparation and Registration Methods.
  • 2 Mixtures and Decompositions of Ensembles and Effects.
  • 3 General Laws: Preparation and Registration of Microsystems.
  • 4 Properties and Pseudoproperties.
  • 4.1 Properties and Physical Objects.
  • 4.2 Pseudoproperties.
  • 5 Ensembles and Effects in Quantum Mechanics.
  • 6 Decision Effects and Faces of K.
  • IV Coexistent Effects and Coexistent Decompositions.
  • 1 Coexistent Effects and Observables.
  • 1.1 Coexistent Registrations.
  • 1.2 Coexistent Effects.
  • 1.3 Commensurable Decision Effects.
  • 1.4 Observables.
  • 2 Structures in the Class of Observables.
  • 2.1 The Spaces ?(?) and ?’(?).
  • 2.2 Mixture Morphisms Corresponding to an Observable.
  • 2.3 The Kernel of an Observable; Mixture of Effects for an Observable.
  • 2.4 Mixtures and Decompositions of Observables.
  • 2.5 Measurement Scales for Observables.
  • 3 Coexistent and Complementary Observables.
  • 4 Realizations of Observables.
  • 5 Coexistent Decompositions of Ensembles.
  • 6 Complementary Decompositions of Ensembles.
  • 7 Realizations of Decompositions.
  • 8 Objective Properties and Pseudoproperties of Microsystems.
  • 8.1 Objective Properties of Microsystems and Superselection Rules.
  • 8.2 Pseudoproperties of Microsystems.
  • 8.3 Logic of Decision Effects?.
  • V Transformations of Registration and Preparation Procedures. Transformations of Effects and Ensembles.
  • 1 Morphisms for Selection Procedures.
  • 2 Morphisms of Statistical Selection Procedures.
  • 3 Morphisms of Preparation and Registration Procedures.
  • 4 Morphisms of Ensembles and Effects.
  • 4.1 Morphisms of Ensembles.
  • 4.2 Morphisms of Effects.
  • 4.3 Coexistent Operations and Coexistent Effects Morphisms.
  • 5 Isomorphisms and Automorphisms of Ensembles and Effects.
  • VI Representation of Groups by Means of Effect Automorphisms and Mixture Automorphisms.
  • 1 Homomorphic Maps of a Group
    𝒢 in the Group 𝓐 of ?-continuous Effect Automorphisms.
  • 1.1 Generation of a Representation of
    𝒢 in 𝓐 by Means of a Representation of 𝒢 by r-Automorphisms.
  • 1.2 Some General Properties of a Representation of 𝒢 in 𝓐.
  • 1.3 Topologies on the Group 𝓐.
  • 1.4 The Representation of 𝒢 in Phase Space ?.
  • 2 The 𝒢-invariant Structure Corresponding to a Group Representation.
  • 3 Properties of Representations of 𝒢 which are Dependent on the Special Structure of 𝓐(?) in Quantum Mechanics.
  • 3.1 The Topological Structure of the Group 𝓐(?).
  • 3.2 The Topological Properties of a Representation of 𝒢.
  • 3.3 Unitary and Anti-unitary Representations Up to a Factor.
  • VII The Galileo Group.
  • 1 The Galileo Group as a Set of Transformations of Registration Procedures Relative to Preparation Procedures.
  • 2 Irreducible Representations of the Galileo Group and Their Physical Meaning.
  • 3 Irreducible Representations of the Rotation Group.
  • 4 Position and Momentum Observables.
  • 5 Energy and Angular Momentum Observables.
  • 6 Time Observable?.
  • 7 Spatial Reflections (Parity Transformations).
  • 8 The Problem of the Space 𝓓 for Elementary Systems.
  • 9 The Problem of Differentiability.
  • VIII Composite Systems.
  • 1 Registrations and Effects of the Inner Structure.
  • 2 Composite Systems Consisting of Two Different Elementary Systems.
  • 3 Composite Systems Consisting of Two Identical Elementary Systems.
  • 4 Composite Systems Consisting of Electrons and Atomic Nuclei.
  • 5 The Hamiltonian Operator.
  • 6 Microsystems in External Fields.
  • 7 Criticism of the Description of Interaction in Quantum Mechanics and the Problem of the Space 𝓓.
  • Appendix I.
  • Summary of Lattice Theory.
  • 1 Definition of a Lattice.
  • 2 Orthomodularity.
  • 3 Boolean Rings.
  • 4 Set Lattices.
  • Appendix II.
  • Remarks about Topological and Uniform Structures.
  • 1 Topological Spaces.
  • 2 Uniform Spaces.
  • 3 Baire Spaces.
  • 4 Connectedness.
  • Appendix III.
  • Banach Spaces.
  • 1 Linear Vector Spaces.
  • 2 Normed Vector Spaces and Banach Spaces.
  • 3 The Dual Space for a Banach Space.
  • 4 Weak Topologies.
  • 5 Linear Maps of Banach Spaces.
  • 6 Ordered Vector Spaces.
  • Appendix IV.
  • Operators in Hubert Space.
  • 1 The Hubert Space Structure Type.
  • 2 Orthogonal Systems and Closed Subspaces.
  • 3 The Banach Space of Bounded Operators.
  • 4 Bounded Linear Forms.
  • 6 Projection Operators.
  • 7 Isometric and Unitary Operators.
  • 8 Spectral Representation of Self-adjoint and Unitary Operators.
  • 9 The Spectrum of Compact Self-adjoint Operators.
  • 10 Spectral Representation of Unbounded Self-adjoint Operators.
  • 11 The Trace as a Bilinear Form.
  • 12 Gleason’s Theorem.
  • 13 Isomorphisms and Anti-isomorphisms.
  • 14 Products of Hubert Spaces.
  • References.
  • List of Frequently Used Symbols.
  • List of Axioms.