Beyond the thermodynamic limit: finite-size corrections to state interconversion rates

Christopher T. Chubb1, Marco Tomamichel2, and Kamil Korzekwa1

1Centre for Engineered Quantum Systems, School of Physics, University of Sydney, Sydney NSW 2006, Australia.
2Centre for Quantum Software and Information, School of Software, University of Technology Sydney, Sydney NSW 2007, Australia.

Thermodynamics is traditionally constrained to the study of macroscopic systems whose energy fluctuations are negligible compared to their average energy. Here, we push beyond this thermodynamic limit by developing a mathematical framework to rigorously address the problem of thermodynamic transformations of finite-size systems. More formally, we analyse state interconversion under thermal operations and between arbitrary energy-incoherent states. We find precise relations between the optimal rate at which interconversion can take place and the desired infidelity of the final state when the system size is sufficiently large. These so-called second-order asymptotics provide a bridge between the extreme cases of single-shot thermodynamics and the asymptotic limit of infinitely large systems. We illustrate the utility of our results with several examples. We first show how thermodynamic cycles are affected by irreversibility due to finite-size effects. We then provide a precise expression for the gap between the distillable work and work of formation that opens away from the thermodynamic limit. Finally, we explain how the performance of a heat engine gets affected when one of the heat baths it operates between is finite. We find that while perfect work cannot generally be extracted at Carnot efficiency, there are conditions under which these finite-size effects vanish. In deriving our results we also clarify relations between different notions of approximate majorisation.

Thermodynamics is one of the most versatile physical theories, finding applications in almost all fields of science, from cosmology and astrophysics to chemistry and the theory of computation. Its strength comes from the fact that it provides a universal framework that uses statistical tools to study physical phenomena in the so-called thermodynamic limit, i.e., when the number of involved systems is very large. However, our increasing ability to manipulate and control systems at smaller and smaller scales allows us to build novel nanodevices operating well beyond the thermodynamic limit. Therefore, in order to understand the thermodynamic properties of such devices, we need to formulate a theory that is not constrained to the study of macroscopic systems. In this paper we achieve this by developing an information-theoretic framework describing thermodynamic transformations of finite-size systems.

One immediate application of our theoretical results is to the study of irreversible processes in the nanoscale regime. In particular, we show how the amount of ordered energy needed to drive a small system out of equilibrium is larger than the amount one could obtain in a reverse process. This affects reversibility of thermodynamic cycles and, in turn, deteriorates performance of nanoengines. Despite these negative finite-size effects, we find that in specially engineered conditions nanoscale engines can still achieve the ultimate limit of efficiency.

Our results expand the realm of applicability of thermodynamics beyond the constraint of macroscopic systems, and thus provide new tools to study the universe at the smallest scale.

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Cited by

[1] Christopher T. Chubb, Marco Tomamichel, and Kamil Korzekwa, "Moderate deviation analysis of majorisation-based resource interconversion", arXiv:1809.07778 (2018).

[2] Matteo Lostaglio, "Thermodynamic laws for populations and quantum coherence: A self-contained introduction to the resource theory approach to thermodynamics", arXiv:1807.11549 (2018).

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[4] Martí Perarnau-Llobet and Raam Uzdin, "Collective operations can extremely reduce work fluctuations", arXiv:1810.02237 (2018).

[5] Philippe Faist and Renato Renner, "Fundamental Work Cost of Quantum Processes", Physical Review X 8 2, 021011 (2018).

[6] B. Ahmadi, S. Salimi, F. Kheirandish, and A. S. Khorashad, "Quantum Thermodynamic Force and Flow", arXiv:1802.09953 (2018).

[7] G. Guarnieri, N. H. Y. Ng, K. Modi, J. Eisert, M. Paternostro, and J. Goold, "Quantum work statistics and resource theories: bridging the gap through Renyi divergences", arXiv:1804.09962 (2018).

[8] Fabien Clivaz, Ralph Silva, Géraldine Haack, Jonatan Bohr Brask, Nicolas Brunner, and Marcus Huber, "Unifying paradigms of quantum refrigeration: fundamental limits of cooling and associated work costs", arXiv:1710.11624 (2017).

[9] Philippe Faist, Mario Berta, and Fernando Brandão, "Thermodynamic Capacity of Quantum Processes", arXiv:1807.05610 (2018).

[10] Christopher T. Chubb, Marco Tomamichel, and Kamil Korzekwa, "Moderate deviation analysis of majorization-based resource interconversion", Physical Review A 99 3, 032332 (2019).

[11] Kamil Korzekwa, Christopher T. Chubb, and Marco Tomamichel, "Avoiding Irreversibility: Engineering Resonant Conversions of Quantum Resources", Physical Review Letters 122 11, 110403 (2019).

[12] G. Guarnieri, N. H. Y. Ng, K. Modi, J. Eisert, M. Paternostro, and J. Goold, "Quantum work statistics and resource theories: Bridging the gap through Rényi divergences", Physical Review E 99 5, 050101 (2019).

The above citations are from Crossref's cited-by service (last updated 2019-05-20 21:22:55) and SAO/NASA ADS (last updated 2019-05-20 21:22:57). The list may be incomplete as not all publishers provide suitable and complete citation data.

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