Entropy-Induced Collapse (EIC) Model – Part A A Thermodynamic Trigger for Quantum Measurement and the Arrow of Time

This paper introduces the Entropy-Induced Collapse (EIC) Model, a novel theoretical framework proposing that quantum wavefunction collapse occurs precisely when the environmental entropy associated with a quantum system surpasses a dynamically evolving critical threshold. Unlike traditional interpretations of quantum mechanics—such as spontaneous collapse theories (GRW, CSL), decoherence theory, gravity-based models, or Many-Worlds interpretations—the EIC model grounds the collapse phenomenon explicitly in measurable thermodynamic quantities. By linking quantum measurement outcomes directly to entropy dynamics, the EIC model offers a clear, physically meaningful criterion for wavefunction collapse, eliminating observer-dependent ambiguities and metaphysical assumptions inherent in existing frameworks. The model naturally accounts for the emergence of time asymmetry, providing an intuitive explanation for why quantum measurements are inherently irreversible. Part A of the EIC Model Series establishes the philosophical motivations, foundational concepts, and comparative advantages of the EIC approach. It outlines the role of quantum error correction (QEC) and fractional Brownian motion (fBm) in collapse dynamics and provides testable predictions to differentiate EIC experimentally from other theories. Detailed mathematical formulations, simulations, and experimental proposals will be explored in subsequent papers (Parts B–D). This work is intended for physicists, philosophers of science, and interdisciplinary researchers interested in quantum foundations, thermodynamics, and the nature of time.