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Quantum-Inspired Wavefunction Collapse Dynamics (QIWCD)

Jincheng Zhang

Published Sep 3, 2026• 0 citations
Publisher

Abstract

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.

DOI
10.5281/zenodo.22272328

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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.
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