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Quantum statistical physics: A new approach

Uduzei F. Edgal, David L. Huber

arXiv:cond-mat/0504531Physica A Statistical Mechanics and its ApplicationsNov 29, 20051 citation

Quantum-Inspired Wavefunction Collapse Dynamics (QIWCD)

Jincheng Zhang

Quantum-Inspired Wavefunction Collapse Dynamics (QIWCD) presents a novel mathematical framework for understanding and modeling the collapse of quantum wavefunctions, driven by local interactions. This paper introduces a differential equation that encapsulates the dynamics of open quantum systems, incorporating quantum-like correlations to provide a more realistic representation of wave function evolution. The core mechanism focuses on quantifying the probabilistic nature of collapse, moving beyond deterministic models to capture the inherent randomness and evolution within quantum systems. This research aims to provide a rigorous mathematical foundation for various applications, including quantum computing, simulations, and fundamental physics research.Quantum-Inspired Wavefunction Collapse Dynamics (QIWCD) presents a novel mathematical framework for understanding and modeling the collapse of quantum wavefunctions, driven by local interactions. This paper introduces a differential equation that encapsulates the dynamics of open quantum systems, incorporating quantum-like correlations to provide a more realistic representation of wave function evolution. The core mechanism focuses on quantifying the probabilistic nature of collapse, moving beyond deterministic models to capture the inherent randomness and evolution within quantum systems. This research aims to provide a rigorous mathematical foundation for various applications, including quantum computing, simulations, and fundamental physics research.

Sep 3, 20260 citations

QUANTUM COLLAPSE DYNAMICS: Multi-Platform Hardware Tests of Wavefunction Collapse Beyond Ideal and Noise-Limited Quantum Models

Goddard, David Michael

A purely epistemic interpretation of wavefunction collapse predicts that hardware measurement statistics remain bounded by ideal quantum evolution and calibrated device noise models. We test this prediction using a three-reference validation framework comparing hardware measurements against both ideal unitary evolution and noise-modeled simulations across six quantum computing platforms. In multiple experimental topologies, hardware results consistently fall outside both reference bounds by statistically significant margins and exhibit reproducible, topology-dependent deviation patterns. These deviations appear both at qubits in the collapsed branch and nonlocally across the entangled partner branch that received no collapse operation, with correlated topology-dependent deviation patterns indicating propagation through the W-state entanglement structure. The observed behavior is inconsistent with purely epistemic collapse models and suggests the presence of additional physical dynamics not captured by standard descriptions of measurement.A purely epistemic interpretation of wavefunction collapse predicts that hardware measurement statistics remain bounded by ideal quantum evolution and calibrated device noise models. We test this prediction using a three-reference validation framework comparing hardware measurements against both ideal unitary evolution and noise-modeled simulations across six quantum computing platforms. In multiple experimental topologies, hardware results consistently fall outside both reference bounds by statistically significant margins and exhibit reproducible, topology-dependent deviation patterns. These deviations appear both at qubits in the collapsed branch and nonlocally across the entangled partner branch that received no collapse operation, with correlated topology-dependent deviation patterns indicating propagation through the W-state entanglement structure. The observed behavior is inconsistent with purely epistemic collapse models and suggests the presence of additional physical dynamics not captured by standard descriptions of measurement.

Dec 13, 20250 citations

Quantum Mechanics from Symmetry and Statistical Modeling

Inge Svein Helland

International Journal of Theoretical PhysicsJul 1, 19993 citations

Approaches to the foundation and models of statistical mechanics based on quantum mechanics

Yuho Yokoi

Mar 25, 20210 citations

Statistical evidence against simple forms of wavefunction collapse

Don Nelson Page

If the initial quantum state of the universe is a multiverse superposition over many different sets of values of the effective coupling "constants" of physics, and if this quantum state collapses to an eigenstate of the set of coupling "constants" with a probability purely proportional to the absolute square of the amplitude (with no additional factor for something like life or consciousness), then one should not expect that the coupling `constants' would be so biophilic as they are observed to be. Therefore, the observed biophilic values (apparent fine tuning) of the coupling "constants" is statistical evidence against such simple forms of wavefunction collapse.If the initial quantum state of the universe is a multiverse superposition over many different sets of values of the effective coupling "constants" of physics, and if this quantum state collapses to an eigenstate of the set of coupling "constants" with a probability purely proportional to the absolute square of the amplitude (with no additional factor for something like life or consciousness), then one should not expect that the coupling `constants' would be so biophilic as they are observed to be. Therefore, the observed biophilic values (apparent fine tuning) of the coupling "constants" is statistical evidence against such simple forms of wavefunction collapse.

arXiv:1101.1083Physics Letters BJan 23, 20130 citations

Quantum-Inspired Statistical Physics with Wavefunction Collapse Modeling

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Quantum-Inspired Statistical Physics with Wavefunction Collapse Modeling

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