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Journal Abstract Search

222 related items for PubMed ID: 33824327

  • 1. A quantum heat engine driven by atomic collisions.
    Bouton Q, Nettersheim J, Burgardt S, Adam D, Lutz E, Widera A.
    Nat Commun; 2021 Apr 06; 12(1):2063. PubMed ID: 33824327
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  • 4. Experimental Characterization of a Spin Quantum Heat Engine.
    Peterson JPS, Batalhão TB, Herrera M, Souza AM, Sarthour RS, Oliveira IS, Serra RM.
    Phys Rev Lett; 2019 Dec 13; 123(24):240601. PubMed ID: 31922824
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  • 8. Multilayer Graphene as an Endoreversible Otto Engine.
    Myers NM, Peña FJ, Cortés N, Vargas P.
    Nanomaterials (Basel); 2023 May 05; 13(9):. PubMed ID: 37177093
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  • 10. Performance Analysis and Optimization for Irreversible Combined Carnot Heat Engine Working with Ideal Quantum Gases.
    Chen L, Meng Z, Ge Y, Wu F.
    Entropy (Basel); 2021 Apr 27; 23(5):. PubMed ID: 33925622
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  • 13. Finite-time performance of a quantum heat engine with a squeezed thermal bath.
    Wang J, He J, Ma Y.
    Phys Rev E; 2019 Nov 27; 100(5-1):052126. PubMed ID: 31870038
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  • 15. The equivalence of minimum entropy production and maximum thermal efficiency in endoreversible heat engines.
    Haseli Y.
    Heliyon; 2016 May 27; 2(5):e00113. PubMed ID: 27441284
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  • 16. Non-Markovian thermal operations boosting the performance of quantum heat engines.
    Ptaszyński K.
    Phys Rev E; 2022 Jul 27; 106(1-1):014114. PubMed ID: 35974499
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  • 17. Algorithmic quantum heat engines.
    Köse E, Çakmak S, Gençten A, Kominis IK, Müstecaplıoğlu ÖE.
    Phys Rev E; 2019 Jul 27; 100(1-1):012109. PubMed ID: 31499932
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  • 18. Work and efficiency fluctuations in a quantum Otto cycle with idle levels.
    Anka MF, de Oliveira TR, Jonathan D.
    Phys Rev E; 2024 Jun 27; 109(6-1):064129. PubMed ID: 39021004
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  • 19. Measurement-induced operation of two-ion quantum heat machines.
    Chand S, Biswas A.
    Phys Rev E; 2017 Mar 27; 95(3-1):032111. PubMed ID: 28415299
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