Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water

This research attempts to present a polygeneration system with five various products to recover waste heat of an externally-fired gas turbine cycle driven by biomass fuel. First, the waste heat of the gas turbine cycle is utilized in a supercritical Brayton cycle for more power generation. Then, it...

Full description

Bibliographic Details
Published in:Applied Thermal Engineering
Main Author: Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
Format: Article
Language:English
Published: Elsevier Ltd 2023
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-85146454332&doi=10.1016%2fj.applthermaleng.2022.119884&partnerID=40&md5=99082c961f66a001f2ec27780420d6aa
id 2-s2.0-85146454332
spelling 2-s2.0-85146454332
Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
2023
Applied Thermal Engineering
223

10.1016/j.applthermaleng.2022.119884
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85146454332&doi=10.1016%2fj.applthermaleng.2022.119884&partnerID=40&md5=99082c961f66a001f2ec27780420d6aa
This research attempts to present a polygeneration system with five various products to recover waste heat of an externally-fired gas turbine cycle driven by biomass fuel. First, the waste heat of the gas turbine cycle is utilized in a supercritical Brayton cycle for more power generation. Then, it is employed as a heat source in an organic Rankine cycle and a hot water unit. The power generated in the organic Rankine cycle is used to produce freshwater in a reverse osmosis desalination system. Finally, liquefied natural gas acts as a heat sink for the supercritical Brayton cycle and organic Rankine cycle. The subsystem based on the liquefied natural gas is responsible for the production of cooling and required electricity of an electrolysis unit for hydrogen production. The tri-objective optimization of the designed system, using four supercritical gases in the supercritical Brayton cycle, reveals that the system has the best performance by using nitrogen. The system exergy efficiency is improved by 7.8 % points due to the integration of the subsystems with the gas turbine cycle. The proposed system can generate electricity, heating, and cooling relatively equivalent to 8126 kW, 2023 kW, and 1305 kW, respectively. The rates of hydrogen and freshwater production are equal to 14.28 kgh-1 and 45.81 kgs-1, correspondingly. In the context of environmental analysis, sustainability index and exergoenvironmental index were calculated as 2.365 and 0.6354. © 2022 Elsevier Ltd
Elsevier Ltd
13594311
English
Article

author Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
spellingShingle Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
author_facet Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
author_sort Hai T.; Ashraf Ali M.; Alizadeh A.; Fahad Almojil S.; Ibrahim Almohana A.; Singh Chauhan B.; Alali A.F.; Raise A.
title Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
title_short Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
title_full Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
title_fullStr Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
title_full_unstemmed Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
title_sort Optimization next to environmental analysis of harvesting waste heat from a biomass-driven externally-fired gas turbine cycle for sub-zero cooling and production of hydrogen, freshwater, and hot water
publishDate 2023
container_title Applied Thermal Engineering
container_volume 223
container_issue
doi_str_mv 10.1016/j.applthermaleng.2022.119884
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-85146454332&doi=10.1016%2fj.applthermaleng.2022.119884&partnerID=40&md5=99082c961f66a001f2ec27780420d6aa
description This research attempts to present a polygeneration system with five various products to recover waste heat of an externally-fired gas turbine cycle driven by biomass fuel. First, the waste heat of the gas turbine cycle is utilized in a supercritical Brayton cycle for more power generation. Then, it is employed as a heat source in an organic Rankine cycle and a hot water unit. The power generated in the organic Rankine cycle is used to produce freshwater in a reverse osmosis desalination system. Finally, liquefied natural gas acts as a heat sink for the supercritical Brayton cycle and organic Rankine cycle. The subsystem based on the liquefied natural gas is responsible for the production of cooling and required electricity of an electrolysis unit for hydrogen production. The tri-objective optimization of the designed system, using four supercritical gases in the supercritical Brayton cycle, reveals that the system has the best performance by using nitrogen. The system exergy efficiency is improved by 7.8 % points due to the integration of the subsystems with the gas turbine cycle. The proposed system can generate electricity, heating, and cooling relatively equivalent to 8126 kW, 2023 kW, and 1305 kW, respectively. The rates of hydrogen and freshwater production are equal to 14.28 kgh-1 and 45.81 kgs-1, correspondingly. In the context of environmental analysis, sustainability index and exergoenvironmental index were calculated as 2.365 and 0.6354. © 2022 Elsevier Ltd
publisher Elsevier Ltd
issn 13594311
language English
format Article
accesstype
record_format scopus
collection Scopus
_version_ 1809678017564246016