Tone Theory and Two-photon Atomic and Quantum Dot Interference
Anthony SANTANA
Published Sep 1, 2026• 0 citations
Abstract
Abstract Standard quantum network models interpret continuous-wave two-photon interference via non-local wavefunction collapses, treating system rate imbalances as non-unitary probabilistic losses toan unobservable environment. This paper re-evaluates the continuous-wave optical synchronizationbetween a cavity-coupled quantum dot and a warm atomic cesium vapor cell within the Tension-Optimized Newtonian Entropy (TONE) framework to establish a local, deterministic transportledger. We model heterogeneous single-photon emissions not as abstract probability amplitudes,but as physical, bounded fluid vortex structures propagating across a flexible 10D tripartite man-ifold surface substrate. By analyzing the Minkowski space-time tradeoff equation, we demonstratethat a sub-femtosecond window provides sufficient duration for local real-wave communication acrossthe molecular support envelope, thereby falsifying superluminal collapse mechanisms. Furthermore,the apparent losses and rate imbalances arising from system inefficiencies are shown to be real, un-vortexed wave emissions that decouple from the collection channels and dissipate throughout thesub-spatial pore network under strict Hamiltonian conservation rules. Keywords: TONE Theory, Two-Photon Interference, Quantum Dots, Atomic Ensembles,Minkowski Space-Time, Hamiltonian Conservation.PACS: 42.50.Dv, 78.67.Hc, 32.80.-t, 03.67.HkCopyright: Copyright Pending © 2026DOI: 10.5281/zenodo.22237866
- DOI
- 10.5281/zenodo.22237865
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