Thermodynamic and themoeconomic optimization of isothermal endoreversible chemical engine models

Research output: Contribution to journalArticle

4 Citations (Scopus)

Abstract

© 2017 A branch of finite-time thermodynamics (FTT) is the thermoeconomical analysis of simplified power plant models. The most studied models are those of the Curzon–Ahlborn (CA) and Novikov–Chambadal types. In the decade of 90’s of the past century, the FTT analysis of thermal engines was extended to chemical engines. In the present paper we made a thermoeconomical analysis of heat engines and chemical engines of the CA and Novikov types. This study is carried out for isothermal endoreversible chemical engine models with a linear mass transfer law and under three different modes of thermodynamic performance (maximum power, maximum ecological function and maximum efficient power).
Original languageAmerican English
Pages (from-to)149-161
Number of pages13
JournalPhysica A: Statistical Mechanics and its Applications
DOIs
StatePublished - 15 Dec 2017

Fingerprint

engines
Thermodynamics
Engine
thermodynamics
optimization
Optimization
heat engines
power plants
Model
mass transfer
Power Plant
Mass Transfer
Branch
Heat

Cite this

@article{4ef77eed6e864528a7206b26ce159424,
title = "Thermodynamic and themoeconomic optimization of isothermal endoreversible chemical engine models",
abstract = "{\circledC} 2017 A branch of finite-time thermodynamics (FTT) is the thermoeconomical analysis of simplified power plant models. The most studied models are those of the Curzon–Ahlborn (CA) and Novikov–Chambadal types. In the decade of 90’s of the past century, the FTT analysis of thermal engines was extended to chemical engines. In the present paper we made a thermoeconomical analysis of heat engines and chemical engines of the CA and Novikov types. This study is carried out for isothermal endoreversible chemical engine models with a linear mass transfer law and under three different modes of thermodynamic performance (maximum power, maximum ecological function and maximum efficient power).",
author = "A. Ocampo-Garc{\'i}a and Barranco-Jim{\'e}nez, {M. A.} and F. Angulo-Brown",
year = "2017",
month = "12",
day = "15",
doi = "10.1016/j.physa.2017.07.003",
language = "American English",
pages = "149--161",
journal = "Physica A: Statistical Mechanics and its Applications",
issn = "0378-4371",
publisher = "Elsevier",

}

TY - JOUR

T1 - Thermodynamic and themoeconomic optimization of isothermal endoreversible chemical engine models

AU - Ocampo-García, A.

AU - Barranco-Jiménez, M. A.

AU - Angulo-Brown, F.

PY - 2017/12/15

Y1 - 2017/12/15

N2 - © 2017 A branch of finite-time thermodynamics (FTT) is the thermoeconomical analysis of simplified power plant models. The most studied models are those of the Curzon–Ahlborn (CA) and Novikov–Chambadal types. In the decade of 90’s of the past century, the FTT analysis of thermal engines was extended to chemical engines. In the present paper we made a thermoeconomical analysis of heat engines and chemical engines of the CA and Novikov types. This study is carried out for isothermal endoreversible chemical engine models with a linear mass transfer law and under three different modes of thermodynamic performance (maximum power, maximum ecological function and maximum efficient power).

AB - © 2017 A branch of finite-time thermodynamics (FTT) is the thermoeconomical analysis of simplified power plant models. The most studied models are those of the Curzon–Ahlborn (CA) and Novikov–Chambadal types. In the decade of 90’s of the past century, the FTT analysis of thermal engines was extended to chemical engines. In the present paper we made a thermoeconomical analysis of heat engines and chemical engines of the CA and Novikov types. This study is carried out for isothermal endoreversible chemical engine models with a linear mass transfer law and under three different modes of thermodynamic performance (maximum power, maximum ecological function and maximum efficient power).

U2 - 10.1016/j.physa.2017.07.003

DO - 10.1016/j.physa.2017.07.003

M3 - Article

SP - 149

EP - 161

JO - Physica A: Statistical Mechanics and its Applications

JF - Physica A: Statistical Mechanics and its Applications

SN - 0378-4371

ER -