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This research proposes a thermodynamic witness that quantifies post-quantum Bell correlations by measuring energy routing into an explicit battery rather than creating net work. The study establishes strict ceilings on mean battery charge for specific quantum games like CHSH, distinguishing between local, quantum, and nonsignalling behaviors through calibrated Hamiltonian implementations. It advances the intersection of quantum foundations and thermodynamics by providing a trusted-module framework to certify non-classical correlations via work data.
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Battery-Explicit Thermodynamic Witnesses of Bell Post-Quantumness

arXiv3 min read

arXiv:2605.09149v4 Announce Type: replace Abstract: We introduce a battery-explicit thermodynamic witness of post-quantum Bell correlations. In each round, a single supplied excitation is routed into an explicit two-level battery if and only if a Bell-game condition is satisfied. The routing operation is implemented by an energy-preserving controlled SWAP, with all logical control registers taken to be degenerate. Thus the correlation resource does not create energy; it only determines the probability that the supplied excitation reaches the battery. The construction is first formulated for finite two-player XOR games. For any such game, the mean battery charge is exactly the game success probability multiplied by the battery gap. Optimizing over local, quantum, or nonsignalling behaviours therefore turns the corresponding game values into local, quantum, or nonsignalling battery-charge ceilings. For the CHSH game, Tsirelson's bound becomes a strict quantum ceiling on the mean battery charge, while a PR-box behaviour reaches the single-excitation cap. The witness is trusted-module rather than device-independent: it assumes calibrated Hamiltonians, correct classical wiring, and a trusted energy-preserving battery module. We also discuss a reversible-controller implementation, finite-statistics certification from work data, robustness to imperfect battery readout, and cyclic bookkeeping showing that no positive net work is obtained once fuel restoration and memory erasure are included.

Abstract:We introduce a battery-explicit thermodynamic witness of post-quantum Bell correlations. In each round, a single supplied excitation is routed into an explicit two-level battery if and only if a Bell-game condition is satisfied. The routing operation is implemented by an energy-preserving controlled SWAP, with all logical control registers taken to be degenerate. Thus the correlation resource does not create energy; it only determines the probability that the supplied excitation reaches the battery. The construction is first formulated for finite two-player XOR games. For any such game, the mean battery charge is exactly the game success probability multiplied by the battery gap. Optimizing over local, quantum, or nonsignalling behaviours therefore turns the corresponding game values into local, quantum, or nonsignalling battery-charge ceilings. For the CHSH game, Tsirelson's bound becomes a strict quantum ceiling on the mean battery charge, while a PR-box behaviour reaches the single-excitation cap. The witness is trusted-module rather than device-independent: it assumes calibrated Hamiltonians, correct classical wiring, and a trusted energy-preserving battery module. We also discuss a reversible-controller implementation, finite-statistics certification from work data, robustness to imperfect battery readout, and cyclic bookkeeping showing that no positive net work is obtained once fuel restoration and memory erasure are included.

arXiv:2605.09149 [quant-ph]

(or arXiv:2605.09149v4 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2605.09149 Focus to learn more arXiv-issued DOI via DataCite

New J. Phys. 28 084509 2006

https://doi.org/10.1088/1367-2630/ae98a4 Focus to learn more DOI(s) linking to related resources

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Full text under the publisher's open licence · 305 words

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