Matches in SemOpenAlex for { <https://semopenalex.org/work/W3170098071> ?p ?o ?g. }
- W3170098071 abstract "Heat engines constitute the major building blocks of modern technologies. However, conventional heat engines with higher power yield lesser efficiency and vice versa and respect various power-efficiency trade-off relations. This is also assumed to be true for the engines operating in the quantum regime. Here we show that these relations are not fundamental. We introduce quantum heat engines that deliver maximum power with Carnot efficiency in the one-shot finite-size regime. These engines are composed of working systems with a finite number of quantum particles and are restricted to one-shot measurements. The engines operate in a one-step cycle by letting the working system simultaneously interact with hot and cold baths via semi-local thermal operations. By allowing quantum entanglement between its constituents and, thereby, a coherent transfer of heat from hot to cold baths, the engine implements the fastest possible reversible state transformation in each cycle, resulting in maximum power and Carnot efficiency. Finally, we propose a physically realizable engine using quantum optical systems." @default.
- W3170098071 created "2021-06-22" @default.
- W3170098071 creator A5051113581 @default.
- W3170098071 creator A5060916380 @default.
- W3170098071 creator A5080005407 @default.
- W3170098071 creator A5088092009 @default.
- W3170098071 date "2022-02-25" @default.
- W3170098071 modified "2023-10-06" @default.
- W3170098071 title "Quantum heat engines with Carnot efficiency at maximum power" @default.
- W3170098071 cites W126915739 @default.
- W3170098071 cites W1964570781 @default.
- W3170098071 cites W1967327079 @default.
- W3170098071 cites W1978252435 @default.
- W3170098071 cites W1980303162 @default.
- W3170098071 cites W2001903741 @default.
- W3170098071 cites W2006991014 @default.
- W3170098071 cites W2017028422 @default.
- W3170098071 cites W2020653222 @default.
- W3170098071 cites W2021820673 @default.
- W3170098071 cites W2029705873 @default.
- W3170098071 cites W2045032506 @default.
- W3170098071 cites W2059846772 @default.
- W3170098071 cites W2077382344 @default.
- W3170098071 cites W2077708609 @default.
- W3170098071 cites W2083152242 @default.
- W3170098071 cites W2084255008 @default.
- W3170098071 cites W2085618819 @default.
- W3170098071 cites W2109246727 @default.
- W3170098071 cites W2137964687 @default.
- W3170098071 cites W2149801992 @default.
- W3170098071 cites W2152983457 @default.
- W3170098071 cites W2161321725 @default.
- W3170098071 cites W2224271220 @default.
- W3170098071 cites W2264955744 @default.
- W3170098071 cites W2293471801 @default.
- W3170098071 cites W2325170917 @default.
- W3170098071 cites W2425675572 @default.
- W3170098071 cites W2470470200 @default.
- W3170098071 cites W2600904433 @default.
- W3170098071 cites W2616566907 @default.
- W3170098071 cites W2748637762 @default.
- W3170098071 cites W2779713265 @default.
- W3170098071 cites W2795008736 @default.
- W3170098071 cites W2799163295 @default.
- W3170098071 cites W2882995914 @default.
- W3170098071 cites W2895329691 @default.
- W3170098071 cites W2910330330 @default.
- W3170098071 cites W2954867839 @default.
- W3170098071 cites W2957246068 @default.
- W3170098071 cites W3012556922 @default.
- W3170098071 cites W3038161993 @default.
- W3170098071 cites W3043798537 @default.
- W3170098071 cites W3083677674 @default.
- W3170098071 cites W3098881728 @default.
- W3170098071 cites W3100095501 @default.
- W3170098071 cites W3102415379 @default.
- W3170098071 cites W3103270688 @default.
- W3170098071 cites W3104474292 @default.
- W3170098071 cites W3105155441 @default.
- W3170098071 cites W3105412633 @default.
- W3170098071 cites W3106047837 @default.
- W3170098071 cites W3130812041 @default.
- W3170098071 cites W3159775200 @default.
- W3170098071 cites W3161191222 @default.
- W3170098071 cites W4226213572 @default.
- W3170098071 doi "https://doi.org/10.1103/physrevresearch.4.013157" @default.
- W3170098071 hasPublicationYear "2022" @default.
- W3170098071 type Work @default.
- W3170098071 sameAs 3170098071 @default.
- W3170098071 citedByCount "3" @default.
- W3170098071 countsByYear W31700980712022 @default.
- W3170098071 crossrefType "journal-article" @default.
- W3170098071 hasAuthorship W3170098071A5051113581 @default.
- W3170098071 hasAuthorship W3170098071A5060916380 @default.
- W3170098071 hasAuthorship W3170098071A5080005407 @default.
- W3170098071 hasAuthorship W3170098071A5088092009 @default.
- W3170098071 hasBestOaLocation W31700980711 @default.
- W3170098071 hasConcept C105923489 @default.
- W3170098071 hasConcept C116615679 @default.
- W3170098071 hasConcept C119104473 @default.
- W3170098071 hasConcept C121332964 @default.
- W3170098071 hasConcept C127413603 @default.
- W3170098071 hasConcept C163258240 @default.
- W3170098071 hasConcept C178790620 @default.
- W3170098071 hasConcept C185592680 @default.
- W3170098071 hasConcept C41008148 @default.
- W3170098071 hasConcept C50406533 @default.
- W3170098071 hasConcept C50517652 @default.
- W3170098071 hasConcept C57198161 @default.
- W3170098071 hasConcept C57879066 @default.
- W3170098071 hasConcept C62520636 @default.
- W3170098071 hasConcept C78519656 @default.
- W3170098071 hasConcept C84114770 @default.
- W3170098071 hasConcept C97355855 @default.
- W3170098071 hasConceptScore W3170098071C105923489 @default.
- W3170098071 hasConceptScore W3170098071C116615679 @default.
- W3170098071 hasConceptScore W3170098071C119104473 @default.
- W3170098071 hasConceptScore W3170098071C121332964 @default.
- W3170098071 hasConceptScore W3170098071C127413603 @default.
- W3170098071 hasConceptScore W3170098071C163258240 @default.