The Mirror Theory (The Cosmic Balance): A Quantum‑Thermodynamic Chiasmus and its Algorithmic Application to Quantum Computing

This work presents a unified quantum‑thermodynamic framework in which fundamental forces, relativistic metrics, and particle states emerge as scale‑dependent projections of a single informational equilibrium ledger. The model introduces the concept of the universal constant c as a geometric mirror‑plane governing reversible transitions between localized fermionic matter (+c) and non‑local bosonic wave states (−c). Entropy is reinterpreted as an irreducible informational background analogous to the cosmic microwave background, enabling a structured redistribution of uncertainty across the mirror‑plane. By combining the Heisenberg uncertainty principle with Landauer’s thermodynamic information‑erasure limit, the theory provides a zero‑sum resolution to several open physical anomalies, including the geometry of quantum spin, relativistic mass divergence, inertial resistance, and the Pauli exclusion principle. Beyond its cosmological implications, the framework proposes a novel algorithmic structure for quantum‑computing error mitigation and decoherence suppression, suggesting potential applications in next‑generation quantum architectures. The manuscript is theoretical in nature and aims to contribute to foundational discussions at the intersection of quantum mechanics, thermodynamics, and information theory.