Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

On the possibility of macroscopic violations of the laws of thermodynamics

Yakov P. Terletsky

Published Jan 1, 1964• 0 citations
OpenAlex

Related papers

Violation of the 2nd law of thermodynamics in the quantum microworld

Vladislav Čápek, O. M. Frege

Czechoslovak Journal of Physics•May 1, 2002•1 citation

Violation of the Zeroth Law of Thermodynamics for a Non-ergodic Interaction

Bernard Gaveau, Lawrence S. Schulman

arXiv:1108.1962•Journal of Statistical Physics•Sep 23, 2011•26 citations

Violation of the second law of thermodynamics in the quantum microworld

Vladislav Čápek, Jiří Bok

Physica A Statistical Mechanics and its Applications•Feb 1, 2001•22 citations

A violation of the uncertainty principle implies a violation of the second law of thermodynamics

Esther Hänggi, Stephanie Wehner

arXiv:1205.6894•Nature Communications•Apr 9, 2013•49 citations

Non-orthogonality of statistical matrices and violations of the second law of thermodynamics

PierGianLuca Porta Mana

•Aug 31, 2004•0 citations

By-passing fluctuation theorems

Paul Boës, Rodrigo Gallego, Nelly H. Y. Ng +2 more

Fluctuation theorems impose constraints on possible work extraction probabilities in thermodynamical processes. These constraints are stronger than the usual second law, which is concerned only with average values. Here, we show that such constraints, expressed in the form of the Jarzysnki equality, can be by-passed if one allows for the use of catalysts---additional degrees of freedom that may become correlated with the system from which work is extracted, but whose reduced state remains unchanged so that they can be re-used. This violation can be achieved both for small systems but also for macroscopic many-body systems, and leads to positive work extraction per particle with finite probability from macroscopic states in equilibrium. In addition to studying such violations for a single system, we also discuss the scenario in which many parties use the same catalyst to induce local transitions. We show that there exist catalytic processes that lead to highly correlated work distributions, expected to have implications for stochastic and quantum thermodynamics.

arXiv:1904.01314•Quantum•Feb 20, 2020•20 citations
Fluctuation theorems impose constraints on possible work extraction probabilities in thermodynamical processes. These constraints are stronger than the usual second law, which is concerned only with average values. Here, we show that such constraints, expressed in the form of the Jarzysnki equality, can be by-passed if one allows for the use of catalysts---additional degrees of freedom that may become correlated with the system from which work is extracted, but whose reduced state remains unchanged so that they can be re-used. This violation can be achieved both for small systems but also for macroscopic many-body systems, and leads to positive work extraction per particle with finite probability from macroscopic states in equilibrium. In addition to studying such violations for a single system, we also discuss the scenario in which many parties use the same catalyst to induce local transitions. We show that there exist catalytic processes that lead to highly correlated work distributions, expected to have implications for stochastic and quantum thermodynamics.