We study a thermal engine model for which Newton's cooling law is obeyed during heat transfer processes. The thermal efficiency and its bounds at maximum output power are derived and discussed. This model, though quite simple, can be applied not only to Carnot engines but also to four other types of engines. For the long thermal contact time limit, new bounds, tighter than what were known before, are obtained. In this case, this model can simulate Otto, Joule-Brayton, Diesel, and Atkinson engines. While in the short contact time limit, which corresponds to the Carnot cycle, the same efficiency bounds as that from Esposito are derived. In both cases, the thermal efficiency decreases as the ratio between the heat capacities of the working med...
We revisit the optimization of performance of finite-time Carnot machines satisfying the low-dissipa...
The efficiency at maximum power (EMP) of heat engines operating as generators is one corner stone of...
The Carnot theorem, one expression of the second law of thermodynamics, places a fundamental upper b...
We study the efficiency at maximum power, η*, of engines performing finite-time Carnot cycles betwee...
The production of work from a heat source with finite heat capacity is discussed. We examine the con...
We perform a molecular dynamics computer simulation of a heat engine model to study how the engine s...
We present a study of the performance of endoreversible thermal machines optimized with respect to t...
It is shown that the Curzon-Ahlborn engine, a prototype of an endoreversible engine, has the same ef...
This book results from a Special Issue related to the latest progress in the thermodynamics of machi...
We propose the minimally nonlinear irreversible heat engine as a new general theoretical model to st...
AbstractThe objective of this study is to investigate the thermal efficiency and power production of...
This is the author accepted manuscript. The final version is available from Springer via the DOI in ...
It is acknowledged that the Curzon-Ahlborn efficiency eta(CA) determines the efficiency at maximum p...
In this work we include, for the Carnot cycle, irreversibilities of linear finite rate of heat trans...
We study a quantum thermal engine model for which the heat transfer law is determined by Einstein's ...
We revisit the optimization of performance of finite-time Carnot machines satisfying the low-dissipa...
The efficiency at maximum power (EMP) of heat engines operating as generators is one corner stone of...
The Carnot theorem, one expression of the second law of thermodynamics, places a fundamental upper b...
We study the efficiency at maximum power, η*, of engines performing finite-time Carnot cycles betwee...
The production of work from a heat source with finite heat capacity is discussed. We examine the con...
We perform a molecular dynamics computer simulation of a heat engine model to study how the engine s...
We present a study of the performance of endoreversible thermal machines optimized with respect to t...
It is shown that the Curzon-Ahlborn engine, a prototype of an endoreversible engine, has the same ef...
This book results from a Special Issue related to the latest progress in the thermodynamics of machi...
We propose the minimally nonlinear irreversible heat engine as a new general theoretical model to st...
AbstractThe objective of this study is to investigate the thermal efficiency and power production of...
This is the author accepted manuscript. The final version is available from Springer via the DOI in ...
It is acknowledged that the Curzon-Ahlborn efficiency eta(CA) determines the efficiency at maximum p...
In this work we include, for the Carnot cycle, irreversibilities of linear finite rate of heat trans...
We study a quantum thermal engine model for which the heat transfer law is determined by Einstein's ...
We revisit the optimization of performance of finite-time Carnot machines satisfying the low-dissipa...
The efficiency at maximum power (EMP) of heat engines operating as generators is one corner stone of...
The Carnot theorem, one expression of the second law of thermodynamics, places a fundamental upper b...