In this paper,we consider three models of quantum heat engines based on Carnot cycle using three energy levels; (1) the ground state, (2) the degenerate state, and (3) the highest energy state. We investigate the variation in the transition state by selecting three different degenerated states. The result we obtained still analogous with the classical heat engine efficiency and also the previous Quantum Carnot Engine model, which only depends on the initial width and the final width of the potential well in isothermal expansion. Moreover, the effect of transition state generally can be accepted for multistate quantum heat engines with 3D systems in cubic potential
We study the partial thermalization to the effect of efficiency at maximum power (EMP) of a quantum ...
This paper will investigate a four-stroke quantum heat engine based on the Tavis-Cummings model. The...
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
The difference between quantum isoenergetic process and quantum isothermal process comes from the vi...
The quantum engine cycle serves as an analogous representation of the macroscopic nature of heat eng...
In this work, an example of a cyclic engine based on quantum-mechanical properties of the strongly n...
© CopyrightEPLA, 2016.A quantum heat engine of a specific type is studied. This engine contains a si...
In order to describe quantum heat engines, here we systematically study isothermal and isochoric pro...
A simple urn model is presented that may describe heat engines employing as working agents spin-1/2 ...
We consider optimizations of Lenoir heat engine within a quantum dynamical field consisting of $N$ n...
It is possible to extract work from a quantum-mechanical system whose dynamics is governed by a time...
Sadi Carnot's theorem regarding the maximum efficiency of heat engines is considered to be of fundam...
We study the performance of the quantum Lenoir engine using single-particle confined within the cubi...
This second Special Issue connects both the fundamental and application aspects of thermomechanical ...
We consider a recently proposed four-level quantum heat engine (QHE) model to analyze the role of qu...
We study the partial thermalization to the effect of efficiency at maximum power (EMP) of a quantum ...
This paper will investigate a four-stroke quantum heat engine based on the Tavis-Cummings model. The...
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...
The difference between quantum isoenergetic process and quantum isothermal process comes from the vi...
The quantum engine cycle serves as an analogous representation of the macroscopic nature of heat eng...
In this work, an example of a cyclic engine based on quantum-mechanical properties of the strongly n...
© CopyrightEPLA, 2016.A quantum heat engine of a specific type is studied. This engine contains a si...
In order to describe quantum heat engines, here we systematically study isothermal and isochoric pro...
A simple urn model is presented that may describe heat engines employing as working agents spin-1/2 ...
We consider optimizations of Lenoir heat engine within a quantum dynamical field consisting of $N$ n...
It is possible to extract work from a quantum-mechanical system whose dynamics is governed by a time...
Sadi Carnot's theorem regarding the maximum efficiency of heat engines is considered to be of fundam...
We study the performance of the quantum Lenoir engine using single-particle confined within the cubi...
This second Special Issue connects both the fundamental and application aspects of thermomechanical ...
We consider a recently proposed four-level quantum heat engine (QHE) model to analyze the role of qu...
We study the partial thermalization to the effect of efficiency at maximum power (EMP) of a quantum ...
This paper will investigate a four-stroke quantum heat engine based on the Tavis-Cummings model. The...
In a quantum Stirling heat engine, the heat exchanged with two thermal baths is partly utilized for ...