Title: Universal Quantum State Collapse Theory (UQSC)

Jincheng Zhang

Published Sep 3, 2026• 0 citations

Abstract

This paper presents a novel theoretical framework, Universal Quantum State Collapse Theory (UQSC), that fundamentally redefines our understanding of quantum state collapse. Conventional interpretations suggest a purely random and unpredictable process. We propose that collapse is not random, but rather a carefully orchestrated, predictable collapse driven by the inherent structure of the quantum system and emergent properties. This theory establishes a "collapse matrix" – a dynamic representation of the system's structure – and a "resonance" mechanism that guides the collapse towards a more stable and defined state. The research explores how subtle variations in initial conditions, coupled with the matrix's inherent properties, can lead to highly predictable, and ultimately, controllable collapses. We demonstrate, through mathematical modeling and analysis, the potential for manipulating these parameters to influence the outcome of collapse, opening doors to novel quantum technologies and a deeper comprehension of the fundamental laws governing quantum reality. This work represents a significant step toward a more robust and mathematically grounded approach to quantum mechanics.

DOI: 10.5281/zenodo.22265422

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