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Quantum heat engines and refrigerators
Known as:
Quantum absorption refrigerator
, Quantum refrigerators
, Quantum heat engines
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A quantum heat engine is a device that generates power from the heat flow between hot and cold reservoirs. The operation mechanism of the engine can…
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Related topics
Related topics
6 relations
Amplifier
Lindblad equation
Open quantum system
Quantum mechanics
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Papers overview
Semantic Scholar uses AI to extract papers important to this topic.
2019
2019
Powering an Engine with Quantum Coherence Experiments demonstrate a quantum-coherence-induced power increase for quantum heat engines over their classical counterparts
J. Anders
2019
Corpus ID: 160016649
L ook out of the window of a train traveling at 180 mph, and you get an immediate sense of the power of modern engines. Through…
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2018
2018
Gravitational quantum well as an effective quantum heat engine
Jonas F. G. Santos
The European Physical Journal Plus
2018
Corpus ID: 119431418
Abstract.In this work the gravitational quantum well is used to model an effective two-level system and to perform two…
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2018
2018
Measurement based coupled quantum heat engine without feedback control
Arpan Das
,
Sibasish Ghosh
2018
Corpus ID: 53325924
Role of entanglement is yet to be fully understood in quantum thermodynamics. We shed some light upon that direction by…
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2018
2018
Quantum Thermodynamics book Friction-free quantum machines
A. Campo
,
A. Chenu
,
Shujin Deng
,
Haibin Wu
2018
Corpus ID: 51691826
The operation of a quantum heat engine in finite time generally faces a trade-off between efficiency and power. Using shortcuts…
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2017
2017
Efficiency of Solar Cells Enhanced by Quantum Coherence
Sangchul Oh
2017
Corpus ID: 119092701
We study how much the efficiency of a solar cell as a quantum heat engine could be enhanced by quantum coherence. In contrast to…
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2016
2016
A simple Quantum heat engine operating between two negative temperatures
T. Dima
,
M. Bekele
2016
Corpus ID: 124540013
2016
2016
Superconducting-circuit quantum heat engine with frequency resolved thermal baths
P. Hofer
,
J. Souquet
,
A. Clerk
2016
Corpus ID: 138516581
2015
2015
Work measurement in a quantum heat engine
F. Bariani
,
Keye Zhang
,
Ying Dong
,
P. Meystre
2015
Corpus ID: 124752846
2012
2012
Informative priors and the analogy between quantum and classical heat engines
G. Thomas
,
Preety Aneja
,
R. Johal
2012
Corpus ID: 119244360
When incomplete information about the control parameters is quantified as a prior distribution, a subtle connection emerges…
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2012
2012
Energy and Entropy Flow in Erbium-Doped Fiber Amplifiers: A Thermodynamic Approach
S. Aleksic
Journal of Lightwave Technology
2012
Corpus ID: 22303532
Current high-capacity and long-reach optical fiber links would not be possible without optical amplification. Especially the use…
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