Jump to main content
US EPA
United States Environmental Protection Agency
Search
Search
Main menu
Environmental Topics
Laws & Regulations
About EPA
Health & Environmental Research Online (HERO)
Contact Us
Print
Feedback
Export to File
Search:
This record has one attached file:
Add More Files
Attach File(s):
Display Name for File*:
Save
Citation
Tags
HERO ID
3116143
Reference Type
Journal Article
Title
Thermodynamic analysis of an isopropanol-acetonehydrogen chemical heat pump
Author(s)
Guo, J; Huai, X; Xu, Min
Year
2015
Is Peer Reviewed?
Yes
Journal
International Journal of Energy Research
ISSN:
0363-907X
EISSN:
1099-114X
Volume
39
Issue
1
Page Numbers
140-146
DOI
10.1002/er.3237
Web of Science Id
WOS:000346497700011
Abstract
An isopropanol-acetone-hydrogen chemical heat pump is investigated in the ASPEN Plus shell, the influences of some important operation parameters on the six different evaluation criteria are presented, and the different evaluation criteria for the heat pump are also analyzed. The decrease of distillation to feed ratio improves the performance of the chemical heat pump, and the increase of endothermic reaction temperature improves the performance of heat pump based on first law of thermodynamics but weakens the performance of heat pump from the viewpoint of second law of thermodynamics. There exists an optimum reflux ratio in terms of enthalpy efficiency, entransy efficiency, and exergy efficiency, but the performance of heat pump deteriorates as the reflux ratio increases in terms of entropy generation number, revised entropy generation number, and ecological COP. The entransy efficiency tends to integrate the behaviors of enthalpy efficiency and exergy efficiency. Compared with entropy generation number, the behavior of revised entropy generation number is more consistent with the practice. Copyright (c) 2014 John Wiley & Sons, Ltd.
Keywords
Isopropanol-acetone-hydrogen (IAH) chemical heat pump; enthalpy efficiency (COP); exergy efficiency; entransy efficiency; entropy generation number; energy recovery
Home
Learn about HERO
Using HERO
Search HERO
Projects in HERO
Risk Assessment
Transparency & Integrity