Paper 3 No free Superposition single particle interaction via thermodyamic exchange

The central novelty of this work lies in reframing single-particle superposition as a thermodynamically sustained rather than a “free” quantum state. Orthodox quantum mechanics treats coherence as fundamental and costless, while decoherence theory treats its loss as inevitable through uncontrolled environmental coupling. Our framework instead quantifies both the inflow required to sustain coherence and the thermodynamic beacons that accompany its loss. This recasts the double-slit experiment, not as a paradox of measurement, but as a controlled thermodynamic process. Three elements distinguish this approach: Energetic Inequalities for Coherence – Equations (1) and (2) provide explicit bounds on stabilizer inflow and entropy leakage. This converts vague experimental advice (“isolate the system”) into operational criteria that can be tuned, tested, and falsified. Collapse as Birth of Time – Building on the Thermodynamic Quantised Theory of Time, we propose that the entropy increment of collapse directly generates the first temporal tick. This links quantum measurement to the thermodynamic arrow of time in a way that no previous single-particle model has formalised. Beacon Law and Auditability – By introducing thermodynamic beacons (δJB) as measurable footprints, and bounding them through energy audit inequalities (Eq. 9), we make collapse experimentally accountable. This positions the theory to be falsifiable with modern calorimetry, optomechanics, and photon-counting techniques. In sum, the uniqueness of this framework is that it transforms the measurement problem from a metaphysical puzzle into a quantitative thermodynamic program. Superposition is no longer an abstract principle but an energetically bounded, entropy-coupled phenomenon, testable through beacon detection and energy audits.