Consistent histories and the interpretation of quantum mechanics

Cited by (1,000)

Items 501–600 of 1,000

1. On the relation between quantum mechanical probabilities and event frequencies
   Charis Anastopoulos · 2004 · Annals of Physics
2. The classical limit for a class quantum baker's maps
   Tracy, M M, Scott, A J · 2002 · CERN Document Server (European Organization for Nuclear Research)
3. On tracial operator representations of quantum decoherence functionals
   Oliver Rudolph, J. D. Maitland Wright · 1997 · Journal of Mathematical Physics
4. Real-time simulation of large open quantum spin systems driven by dissipation
   Debasish Banerjee, Fu-Jiun Jiang, M. Kon, U.‐J. Wiese · 2014 · Physical Review B
5. Graviton Physics: A Concise Tutorial on the Quantum Field Theory of Gravitons, Graviton Noise, and Gravitational Decoherence
   Jen-Tsung Hsiang, Hing-Tong Cho, B. L. Hu · 2024 · Universe
6. Weyl Geometries, Fisher Information and Quantum Entropy in Quantum Mechanics
   Davide Fiscaletti, Ignazio Francesco Licata · 2012 · International Journal of Theoretical Physics
7. Generalized contexts and consistent histories in quantum mechanics
   Marcelo Losada, Roberto Laura · 2014 · Annals of Physics
8. Classicality of quantum information processing
   David Poulin · 2002 · Physical Review A
9. The Formalism of Generalized Contexts and Decay Processes
   Marcelo Losada, Roberto Laura · 2012 · International Journal of Theoretical Physics
10. Decoherent histories and measurement of temporal correlation functions for Leggett-Garg inequalities
    J. J. Halliwell · 2016 · Physical Review A
11. Some remarks on quantum coherence
    Andreas Albrecht · 1994 · CERN Document Server (European Organization for Nuclear Research)
12. Which Natural Processes Have the Special Status of Measurements?
    María Esther Burgos · 1998 · Foundations of Physics
13. Towards a Realistic Interpretation of Quantum Mechanics Providing a Model of the Physical World
    Emilio Santos · 2014 · Foundations of Science
14. Disentanglement of Source and Target and the Laser Quantum State
    Changsuk Noh, H. J. Carmichael · 2008 · Physical Review Letters
15. Instantaneous and dynamical decoherence
    János Polonyi · 2018 · Journal of Physics A Mathematical and Theoretical
16. On the maximum number of decoherent histories
    Lajos Diósi · 1995 · Physics Letters A
17. Quantum Histories and Their Implications
    Adrian Kent · 2007 · Springer eBooks
18. Realism and time symmetry in quantum mechanics
    Benedikt Bläsi, Lucién Hardy · 1995 · Physics Letters A
19. Backward evolving quantum states
    Lev Vaidman A · 2007 · Journal of Physics A Mathematical and Theoretical
20. The role of phase space geometry in Heisenberg’s uncertainty relation
    Charis Anastopoulos, Ntina Savvidou · 2003 · Annals of Physics
21. Consistent-histories and dipolar-basis representation of nonlinear response functions
    Shaul Mukamel · 2000 · Physical Review A
22. Do we understand quantum mechanics – finally?
    Jürg Martin Fröhlich, Baptiste Schubnel · 2013 · ESI lectures in mathematics and physics
23. Comment on “Measurements without probabilities in the final state proposal”
    Eliahu Cohen, Marcin L Nowakowski · 2018 · Physical review. D/Physical review. D.
24. Objectivity of classical quantum stochastic processes
    Piotr Szańkowski, Łukasz Cywiński · 2024 · Quantum
25. Decoherence of domains and defects at phase transitions
    Fernando C. Lombardo, R. J. Rivers, Paula I. Villar · 2007 · Physics Letters B
26. Interpreting Quantum Mechanics according to a Pragmatist Approach
    Manuel Bächtold · 2008 · Foundations of Physics
27. Criteria to detect macroscopic quantum coherence, macroscopic quantum entanglement, and an Einstein-Podolsky-Rosen paradox for macroscopic superposition states
    M. D. Reid · 2019 · Physical Review A
28. The Everett Interpretation: Structure
    Simon W. Saunders · 2021 · Routledge eBooks
29. Are there unsolved problems in the interpretation of quantum mechanics?
    Roland L. Omnes · 2008 · Springer eBooks
30. Psychophysical Interpretation of Quantum Theory
    Rajat Kumar Pradhan · 2012 · NeuroQuantology
31. Transitions to the Continuum: Three Different Approaches
    María Esther Burgos · 2008 · Foundations of Physics
32. Decoherence and the Foundations of Quantum Mechanics
    Maximilian Schlosshauer, Arthur I. Fine · 2006 · Springer eBooks
33. Homogeneous Decoherence Functionals¶in Standard and History Quantum Mechanics
    Oliver Rudolph, J. D. Maitland Wright · 1999 · Communications in Mathematical Physics
34. De Sitter Space Without Quantum Fluctuations
    Kimberly K. Boddy, Sean M. Carroll, Jason Pollack · 2014 · arXiv (Cornell University)
35. Defending Time-Symmetrized Quantum Theory
    Lev Vaidman A · 1996 · arXiv (Cornell University)
36. Completeness of decoherence functionals
    Stephan Schreckenberg · 1995 · Journal of Mathematical Physics
37. Inter-Theory Relations in Physics: Case Studies from Quantum Mechanics and Quantum Field Theory
    Joshua Rosaler · 2013 · arXiv (Cornell University)
38. Preferred Observables, Predictability, Classicality, and the Environment-Induced Decoherence
    Wojciech Hubert Zurek · 1994 · arXiv (Cornell University)
39. Completeness of Decoherence Functionals
    S. Schreckenberg · 1995
40. On the effect of decoherence on quantum tunnelling
    A. Y. Klimenko · 2021 · SN Applied Sciences
41. Bit from Qubit. A Hypothesis on Wave-Particle Dualism and Fundamental Interactions
    Leonardo Chiatti · 2020 · Information
42. Scattering in an environment
    János Polonyi, Karima Zazoua · 2012 · Physical review. D. Particles, fields, gravitation, and cosmology/Physical review. D. Particles and fields
43. Decoherent Histories of Spin Networks
    David Schroeren · 2013 · Foundations of Physics
44. Analysis of Wallace’s Proof of the Born Rule in Everettian Quantum Mechanics II: Concepts and Axioms
    André L. G. Mandolesi · 2018 · Foundations of Physics
45. The Quantum Mechanics Needs the Principle of Wave-Function Collapse—But This Principle Shouldn’t Be Misunderstood
    Sofia Wechsler · 2021 · Journal of Quantum Information Science
46. Consistent Histories
    Robert B. Griffiths · 2009 · Compendium of Quantum Physics
47. The Universe as an Eigenstate: Spacetime Paths and Decoherence
    Ed Seidewitz · 2007 · Foundations of Physics
48. Quantum statistical processes in the early universe
    B. L. Hu · 1993 · Vistas in Astronomy
49. Wigner’s “Unreasonable Effectiveness of Mathematics”, Revisited
    Roland L. Omnes · 2011 · Foundations of Physics
50. Measurement as absorption of Feynman trajectories: Collapse of the wave function can be avoided
    Avi Marchewka, Z. Schuss · 2002 · Physical Review A
51. Decoherence and the Existential Interpretation of Quantum Theory, or ”No Information Without Representation”
    Wojciech Hubert Zurek · 1994 · Springer eBooks
52. Renormalizing Open Quantum Field Theories
    S. Nagy, János Polonyi · 2022 · Universe
53. History operators in quantum mechanics
    Leonardo Castellani · 2019 · International Journal of Quantum Information
54. IS THE UNIVERSE A QUANTUM SYSTEM?
    Helmut Fink, Hajo Leschke · 2000 · Foundations of Physics Letters
55. A Computational Model for Quantum Measurement
    Srikanth, R · 2003 · CERN Document Server (European Organization for Nuclear Research)
56. Canonical Relational Quantum Mechanics from Information Theory
    Joakim Munkhammar · 2011 · arXiv (Cornell University)
57. On the existence of inequivalent quasideterministic domains
    Irene Giardina, A. Rimini · 1996 · Foundations of Physics
58. Approaches to quantum gravity
    Cecilia Flori · 2011
59. The role of phase space geometry in Heisenberg’s uncertainty relation
    Charis Anastopoulos, Ntina Savvidou · 2008
60. Relational Quantum Mechanics and Contextuality
    Calum J. Robson · 2024 · Foundations of Physics
61. Quantum histories without contrary inferences
    Marcelo Losada, Roberto Laura · 2014 · Annals of Physics
62. Quantum histories without contrary inferences
    Marcelo Losada, Roberto Laura · 2014 · CONICET Digital (CONICET)
63. Comparing Quantum Gravity Models: String Theory, Loop Quantum Gravity, and Entanglement Gravity versus SU(∞)-QGR
    H. Ziaeepour · 2022 · Symmetry
64. The Spatiotemporal Doubled‐Density Operator: A Unified Framework for Analyzing Spatial and Temporal Quantum Processes
    Zhian Jia, Dagomir Kaszlikowski · 2024 · Advanced Quantum Technologies
65. Finite-time optimization of a quantum Szilard heat engine
    Tan-Ji Zhou, Yuhan Ma, C. P. Sun · 2024 · Physical Review Research
66. Path integrals from spacetime quantum actions
    N. L. Diaz, J. M. Matera, R. Rossignoli · 2025 · Annals of Physics
67. A Brief Survey of Main Interpretations of Quantum Mechanics
    Jarosław Pykacz · 2015 · SpringerBriefs in physics
68. Standard quantum mechanics without observers
    Ovidiu Cristinel Stoica · 2021 · Physical Review A
69. Spontaneous Collapse Theories and Cosmology
    Daniel Sudarsky · 2020 · Fundamental theories of physics
70. Tunneling probabilities for the birth of universes with radiation, cosmological constant and an ad hoc potential
    G. Oliveira-Neto, D. L. Canedo, Germano Amaral Monerat · 2023 · The European Physical Journal Plus
71. Open system entanglement and the laser quantum state
    H. J. Carmichael, Changsuk Noh · 2009 · Physica E Low-dimensional Systems and Nanostructures
72. Popescu–Rohrlich boxes in quantum measure theory
    Matthew Robert Barnett, Fay Dowker B, David Rideout · 2007 · Journal of Physics A Mathematical and Theoretical
73. Empty waves: A genuine effect?
    Robert B. Griffiths · 1993 · Physics Letters A
74. Inferential versus Dynamical Conceptions of Physics
    David Wallace · 2017 · Cambridge University Press eBooks
75. Metric Relativity and the Dynamical Bridge: Highlights of Riemannian Geometry in Physics
    M. Novello, Eduardo Bittencourt · 2015 · Brazilian Journal of Physics
76. Cosmological decoherence from thermal gravitons
    Ning Bao, Aidan Chatwin-Davies, Jason Pollack, Grant N. Remmen · 2020 · Journal of High Energy Physics
77. Cosmological decoherence from thermal gravitons
    Ning Bao · 2023 · OSTI OAI (U.S. Department of Energy Office of Scientific and Technical Information)
78. Two Approaches to Coupling Classical and Quantum Variables
    J. J. Halliwell · 1999 · International Journal of Theoretical Physics
79. Decoherence and localization in quantum two-level systems
    Ting Yu · 1998 · Physica A Statistical Mechanics and its Applications
80. Remarks on Mohrhoff's Interpretation of Quantum Mechanics
    Louis Marchildon · 2004 · Foundations of Physics
81. A model for the uniqueness of data and decoherent histories
    Roland L. Omnes · 1994 · Physics Letters A
82. Pure Quantum Interpretations Are not Viable
    I. Schmelzer · 2010 · Foundations of Physics
83. A Bayesian account of quantum histories
    Thomas Marlow · 2005 · Annals of Physics
84. Watching it boil: Continuous observation for the quantum zeno effect
    Lawrence S. Schulman · 1997 · Foundations of Physics
85. Spontaneous Breakdown of the Time Reversal Symmetry
    János Polonyi · 2016 · Symmetry
86. Temporal Observables and Entangled Histories
    Jordan S. Cotler, Frank A. Wilczek · 2017 · arXiv (Cornell University)
87. Spontaneous Symmetry Breaking in Finite Quantum Systems: a decoherent-histories approach
    David Wallace · 2018 · PhilSci-Archive (University of Pittsburgh)
88. Wigner and his many friends: A new no-go result?
    Sebastián Fortín, Olímpia Lombardi · 2019 · arXiv (Cornell University)
89. A note on Schmidt states and consistency
    Adrian Kent · 1995 · Physics Letters A
90. On quantum reliability characterizing systematic errors in quantum sensing
    Lian-Xiang 相 Cui 崔 廉, Yi-Mu Du, Chang-Pu Sun · 2025 · Journal of Reliability Science and Engineering
91. The Measurement Process in the Generalized Contexts Formalism for Quantum Histories
    Marcelo Losada, Leonardo Vanni, Roberto Laura · 2015 · International Journal of Theoretical Physics
92. Distinguishing Initial State-Vectors from Each Other in Histories Formulations and the PBR Argument
    Petros Wallden · 2013 · Foundations of Physics
93. 3D-space and the preferred basis cannot uniquely emerge from the quantum structure
    Ovidiu Cristinel Stoica · 2022 · Advances in Theoretical and Mathematical Physics
94. Emergence of Objectivity for Quantum Many-Body Systems
    Harold Ollivier · 2022 · Entropy
95. The generation of mass in a non-linear field theory
    Thomas Warmann · 2022 · Zeitschrift für Naturforschung A
96. Ascertaining complementary and incompatible quantum properties by means of double-slit experiments
    Giuseppe Nisticò · 2008 · Journal of Physics A Mathematical and Theoretical
97. Compatible quantum theory
    Richard M. Friedberg, Pierre C. Hohenberg · 2014 · Reports on Progress in Physics
98. Quantum path computing: computing architecture with propagation paths in multiple plane diffraction of classical sources of fermion and boson particles
    Burhan Gülbahar · 2019 · Quantum Information Processing
99. Interpretation miniatures
    Hrvoje Nikolić · 2017 · International Journal of Quantum Information
100. Quantifying Decoherence via Increases in Classicality
     Shuangshuang Fu, Shunlong Luo · 2021 · Entropy