Gas system cascade analysis framework for optimal design of biogas system

The main objective of this research is to develop a new framework called Gas System Cascade Analysis (GASCA) based on Time-Based Pinch Analysis (TBPA) principle. In additional, there are 4 sub-objectives in this study which is to determine the optimal capacity (energy equivalent) of anaerobic digest...

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第一著者: Othman, Muhamad Nazrin
フォーマット: 学位論文
言語:英語
出版事項: 2017
主題:
オンライン・アクセス:http://eprints.utm.my/78232/1/MuhamadNazrinOthmanMFChE2017.pdf
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author Othman, Muhamad Nazrin
author_facet Othman, Muhamad Nazrin
author_sort Othman, Muhamad Nazrin
description The main objective of this research is to develop a new framework called Gas System Cascade Analysis (GASCA) based on Time-Based Pinch Analysis (TBPA) principle. In additional, there are 4 sub-objectives in this study which is to determine the optimal capacity (energy equivalent) of anaerobic digester (AD) and biogas storage, to examine the impacts of supply-demand variation in selected region, to evaluate the impact of incorporating biogas system on carbon emission reduction and to estimate the cost-benefit analysis for biogas system. Prior to applying GASCA framework, the superstructure of biogas distributed energy system design is introduced to show the overall system operational scenario followed by data collection and extraction. The TBPA was then conducted to determine the optimal capacity of AD, biogas storage, and operation (charging and discharging of biogas from biogas storage). Based on the case study, the optimal capacity of AD was 4,629.52 MJ/h with maximum energy capacity at biogas storage of 16,988.61 MJ/h. Sensitivity analysis was conducted to examine the impact of supply-demand variation on the capacity of AD and biogas storage. The carbon emission reduction contributed by the proposed framework was up to 131,011 kg CO2eq per day. For cost-benefit analysis, the calculated Net Present Value was 18.73 %. In conclusion, GASCA framework has been applied successfully to determine the optimal capacity (energy equivalent) of AD and biogas storage.
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spelling uthm-782322018-07-30T08:51:30Z http://eprints.utm.my/78232/ Gas system cascade analysis framework for optimal design of biogas system Othman, Muhamad Nazrin TP Chemical technology The main objective of this research is to develop a new framework called Gas System Cascade Analysis (GASCA) based on Time-Based Pinch Analysis (TBPA) principle. In additional, there are 4 sub-objectives in this study which is to determine the optimal capacity (energy equivalent) of anaerobic digester (AD) and biogas storage, to examine the impacts of supply-demand variation in selected region, to evaluate the impact of incorporating biogas system on carbon emission reduction and to estimate the cost-benefit analysis for biogas system. Prior to applying GASCA framework, the superstructure of biogas distributed energy system design is introduced to show the overall system operational scenario followed by data collection and extraction. The TBPA was then conducted to determine the optimal capacity of AD, biogas storage, and operation (charging and discharging of biogas from biogas storage). Based on the case study, the optimal capacity of AD was 4,629.52 MJ/h with maximum energy capacity at biogas storage of 16,988.61 MJ/h. Sensitivity analysis was conducted to examine the impact of supply-demand variation on the capacity of AD and biogas storage. The carbon emission reduction contributed by the proposed framework was up to 131,011 kg CO2eq per day. For cost-benefit analysis, the calculated Net Present Value was 18.73 %. In conclusion, GASCA framework has been applied successfully to determine the optimal capacity (energy equivalent) of AD and biogas storage. 2017-05 Thesis NonPeerReviewed application/pdf en http://eprints.utm.my/78232/1/MuhamadNazrinOthmanMFChE2017.pdf Othman, Muhamad Nazrin (2017) Gas system cascade analysis framework for optimal design of biogas system. Masters thesis, Universiti Teknologi Malaysia, Faculty of Chemical Engineering. http://dms.library.utm.my:8080/vital/access/manager/Repository/vital:105165
spellingShingle TP Chemical technology
Othman, Muhamad Nazrin
Gas system cascade analysis framework for optimal design of biogas system
title Gas system cascade analysis framework for optimal design of biogas system
title_full Gas system cascade analysis framework for optimal design of biogas system
title_fullStr Gas system cascade analysis framework for optimal design of biogas system
title_full_unstemmed Gas system cascade analysis framework for optimal design of biogas system
title_short Gas system cascade analysis framework for optimal design of biogas system
title_sort gas system cascade analysis framework for optimal design of biogas system
topic TP Chemical technology
url http://eprints.utm.my/78232/1/MuhamadNazrinOthmanMFChE2017.pdf
url-record http://eprints.utm.my/78232/
http://dms.library.utm.my:8080/vital/access/manager/Repository/vital:105165
work_keys_str_mv AT othmanmuhamadnazrin gassystemcascadeanalysisframeworkforoptimaldesignofbiogassystem