Energy conversion of heat into work at the quantum level is modeled by quantum heat machines (QHMs) generally assumed to operate at weak coupling to the baths. This supposition is grounded in the separability principle between systems and allows the derivation of the evolution equation. In the weak coupling regime, the machine’s output is limited by the coupling strength, restricting their application. Seeking to overcome this limitation, we analyze QHMs in the virtually unexplored strong coupling regime here, where separability, as well as other standard thermodynamic assumptions, may no longer hold. We show that strongly coupled QHMs may be as efficient as their weakly coupled counterparts. In addition, we find a novel turnover behavior w...
Understanding the thermodynamics of driven quantum systems strongly coupled to thermal baths is a ce...
In this paper we investigate the relationship between the efficiency of a cyclic quantum heat engine...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....
Energy conversion of heat into work at the quantum level is modeled by quantum heat machines (QHMs) ...
Quantum systems strongly coupled to many-body systems equilibrate to the reduced state of a global t...
Uncovering whether strong system-bath coupling can be an advantageous operation resource for energy ...
International audienceWhile strong system-bath coupling produces rich and interesting phenomena, app...
We study a quantum heat engine at strong coupling between the system and the thermal reservoirs. Exp...
How much work can be extracted from a heat bath using a thermal machine? The study of this question ...
Sadi Carnot's theorem regarding the maximum efficiency of heat engines is considered to be of fundam...
We demonstrate that a quantum absorption refrigerator (QAR) can be realized from the smallest quantu...
We study coupled quantum systems as the working media of thermodynamic machines. Under a suitable ph...
We investigate the limitations that emerge in thermodynamic tasks as a result of having local contro...
We study a minimal quantum Otto heat engine, where the working medium consists of an interacting few...
Describing the thermodynamic properties of quantum systems far from equilibrium is challenging, in p...
Understanding the thermodynamics of driven quantum systems strongly coupled to thermal baths is a ce...
In this paper we investigate the relationship between the efficiency of a cyclic quantum heat engine...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....
Energy conversion of heat into work at the quantum level is modeled by quantum heat machines (QHMs) ...
Quantum systems strongly coupled to many-body systems equilibrate to the reduced state of a global t...
Uncovering whether strong system-bath coupling can be an advantageous operation resource for energy ...
International audienceWhile strong system-bath coupling produces rich and interesting phenomena, app...
We study a quantum heat engine at strong coupling between the system and the thermal reservoirs. Exp...
How much work can be extracted from a heat bath using a thermal machine? The study of this question ...
Sadi Carnot's theorem regarding the maximum efficiency of heat engines is considered to be of fundam...
We demonstrate that a quantum absorption refrigerator (QAR) can be realized from the smallest quantu...
We study coupled quantum systems as the working media of thermodynamic machines. Under a suitable ph...
We investigate the limitations that emerge in thermodynamic tasks as a result of having local contro...
We study a minimal quantum Otto heat engine, where the working medium consists of an interacting few...
Describing the thermodynamic properties of quantum systems far from equilibrium is challenging, in p...
Understanding the thermodynamics of driven quantum systems strongly coupled to thermal baths is a ce...
In this paper we investigate the relationship between the efficiency of a cyclic quantum heat engine...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....