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This research demonstrates that quantum steerability provides a provable thermodynamic advantage for cooling tasks compared to classical correlations, offering a new witness for this fundamental resource. By linking the maximum cooling efficiency directly to steerability robustness, the study advances our understanding of heat management in quantum computation systems. These findings are critical for developing scalable quantum processors where efficient state resetting and heat removal are essential bottlenecks.
All steerable quantum correlations can provide thermodynamic advantages in cooling
arXiv:2511.16999v2 Announce Type: replace Abstract: The removal of heat generated during computation poses a major challenge for both classical and quantum computation and information processing. In particular, removal of this heat is intrinsically tied to one of the fundamental requirements of quantum computation - the need to reset the system to a pure state before computation. Therefore, efficient cooling is of paramount importance, not only for deepening our understanding of thermodynamics in the quantum regime but also for advancing the development of modern quantum technologies. In this letter, we devise a cooling task that exploits steerability - a fundamental feature of quantum correlations - to demonstrate a provable quantum thermodynamic advantage over classically correlated scenarios where steerability is absent. We quantify the advantage by the ratio of the amount of heat removed using steerable quantum correlations to that obtained with unsteerable classical correlations. Specifically, we show that steerable quantum correlations always yield a thermodynamic advantage in a cooling task over their classical counterparts. Remarkably, we further establish that the maximum achievable advantage is directly related to a geometric measure of steerability called steerability robustness. Our results suggest that this thermodynamic advantage can be interpreted as a witness of steerability. Finally, we present examples in which the advantage grows with the dimension of the underlying system.
Abstract:The removal of heat generated during computation poses a major challenge for both classical and quantum computation and information processing. In particular, removal of this heat is intrinsically tied to one of the fundamental requirements of quantum computation - the need to reset the system to a pure state before computation. Therefore, efficient cooling is of paramount importance, not only for deepening our understanding of thermodynamics in the quantum regime but also for advancing the development of modern quantum technologies. In this letter, we devise a cooling task that exploits steerability - a fundamental feature of quantum correlations - to demonstrate a provable quantum thermodynamic advantage over classically correlated scenarios where steerability is absent. We quantify the advantage by the ratio of the amount of heat removed using steerable quantum correlations to that obtained with unsteerable classical correlations. Specifically, we show that steerable quantum correlations always yield a thermodynamic advantage in a cooling task over their classical counterparts. Remarkably, we further establish that the maximum achievable advantage is directly related to a geometric measure of steerability called steerability robustness. Our results suggest that this thermodynamic advantage can be interpreted as a witness of steerability. Finally, we present examples in which the advantage grows with the dimension of the underlying system.
arXiv:2511.16999 [quant-ph]
(or arXiv:2511.16999v2 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2511.16999 Focus to learn more arXiv-issued DOI via DataCite
Phys. Rev. Lett. 137, 110404 (2026)
https://doi.org/10.1103/gg3l-cghb Focus to learn more DOI(s) linking to related resources
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