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Energetic Footprints of Irreversibility in the Quantum Regime

Physics

Energetic Footprints of Irreversibility in the Quantum Regime

M. H. Mohammady, A. Auffèves, et al.

Discover how M. H. Mohammady, A. Auffèves, and J. Anders explore the unique heat footprints of quantum irreversibility and its implications for work extraction in low temperatures. This groundbreaking research delves into the impact of decoherence on quantum thermodynamic processes, uncovering intriguing insights that redefine our understanding of energy optimization.

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Playback language: English
Abstract
This paper investigates the energetic footprints of irreversibility in quantum thermodynamic processes, focusing on the impact of decoherence on work extraction and heat exchange. Using quantum trajectories, the authors analyze distributions of classical and quantum heat, revealing that the heat footprint of quantum irreversibility differs significantly from the classical case. They quantify how quantum irreversibility reduces extractable work from coherent states, highlighting the importance of both entropic and energetic footprints for optimizing quantum operations at low temperatures.
Publisher
Communications Physics
Published On
May 19, 2020
Authors
M. H. Mohammady, A. Auffèves, J. Anders
Tags
quantum thermodynamics
irreversibility
decoherence
work extraction
heat exchange
energy optimization
quantum states
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