Quantum Tidal Theory: A Unified Framework from Microscopic Action to Macroscopic Physics

wangchao, wangchao

wangchao

wangchao

li'chao

This paper proposes and validates a unified theory of quantum spacetime based on an admissibility principle. We demonstrate that all spacetime characteristics of quantum systems emerge from a fundamental admissibility conditionwhereis a coordination function. This principle naturally gives rise to the quantum uncertainty relationwhere is the minimal admissible action. More importantly, we show how this microscopic principle leads to macroscopic hierarchical spacetime structures, including the effect and system-type-dependent correction factors. By connecting microscopic admissibility conditions with macroscopic observations, we establish a complete theoretical framework from fundamental principles to practical quantum system descriptions

wangchao

Hamdi Bilgin Ergun

Abstract This work proposes a conceptual connection between phase coherence, the principle of least action, and entropy within a discrete spatial framework. Space is interpreted as a lattice of elementary phase-supporting units, where physical processes occur through phase propagation and closure. Coherent phase evolution corresponds to minimal action and stable transport, while the loss of phase coherence leads to an increase in accessible microscopic configurations and thus entropy. The framework suggests that macroscopic irreversibility may emerge from the progressive breakdown of microscopic phase alignment. Triadic phase propagation, characterized by three equivalent directions separated by 120°, naturally generates hexagonal spatial connectivity and enables phase-cycle closure. This provides a unified geometrical perspective linking quantum coherence, transport processes, and thermodynamic behavior.