In this work, we study the efficiency of charging a quantum battery through optical pumping. The battery consists of a qutrit and it is connected to a natural thermal reservoir and an external coherent drive in the limit where its upper energy level can be adiabatically eliminated from the dynamics. In this scenario, the drive plus spontaneous emission optically pumps the intermediate energy level of the qutrit and the battery can be understood as being charged by an effective higher temperature reservoir that takes it out of equilibrium with the natural reservoir and stores useful energy in it. We also analyse the efficiency of using this battery and charging scheme as the work fluid of a two-stroke thermal machine. The thermal machine inc...
© CopyrightEPLA, 2016.A quantum heat engine of a specific type is studied. This engine contains a si...
Quantum thermal machines, a sub-field of quantum thermodynamics, are actively studied with the aim t...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
In the quest for high-performance quantum thermal machines, looking for an optimal thermodynamic eff...
We study a minimal quantum Otto heat engine, where the working medium consists of an interacting few...
Algebraic methods for solving time dependent Hamiltonians are used to investigate the performance of...
The concept of thermal machines has evolved from the canonical steam engine to the recently proposed...
We present an overview of recent advances in the study of energy dynamics and mechanisms for energy ...
We investigate how the quantum signatures can emerge by modifications to the experimentally demonstr...
This paper will investigate a four-stroke quantum heat engine based on the Tavis-Cummings model. The...
We analyze the performance of a quantum Stirling heat engine (QSHE), using a two level system and th...
We study a quantum thermal engine model for which the heat transfer law is determined by Einstein's ...
The performance of quantum heat engines is generally based on the analysis of a single cycle. We cha...
© CopyrightEPLA, 2016.A quantum heat engine of a specific type is studied. This engine contains a si...
Quantum thermal machines, a sub-field of quantum thermodynamics, are actively studied with the aim t...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
In the quest for high-performance quantum thermal machines, looking for an optimal thermodynamic eff...
We study a minimal quantum Otto heat engine, where the working medium consists of an interacting few...
Algebraic methods for solving time dependent Hamiltonians are used to investigate the performance of...
The concept of thermal machines has evolved from the canonical steam engine to the recently proposed...
We present an overview of recent advances in the study of energy dynamics and mechanisms for energy ...
We investigate how the quantum signatures can emerge by modifications to the experimentally demonstr...
This paper will investigate a four-stroke quantum heat engine based on the Tavis-Cummings model. The...
We analyze the performance of a quantum Stirling heat engine (QSHE), using a two level system and th...
We study a quantum thermal engine model for which the heat transfer law is determined by Einstein's ...
The performance of quantum heat engines is generally based on the analysis of a single cycle. We cha...
© CopyrightEPLA, 2016.A quantum heat engine of a specific type is studied. This engine contains a si...
Quantum thermal machines, a sub-field of quantum thermodynamics, are actively studied with the aim t...
Various engine types are thermodynamically equivalent in the quantum limit of small “engine action”....