Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan
Comprehensive risk assessment across multiple fields is required to assess the potential utility of hydrogen energy technology. In this research, we analyzed environmental and socio-economic effects during the entire life cycle of a hydrogen energy system using input-output tables. The target system...
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doaj-64c73b9ffd914edf8c4860ca39bf1f842020-11-25T00:46:48ZengMDPI AGSustainability2071-10502017-08-0198137610.3390/su9081376su9081376Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from JapanShunichi Hienuki0Center for Creation of Symbiosis Society with Risk (CCSSR), Yokohama National University, 79-5 Tokiwadai, Hodogaya, Yokohama 240-8501, JapanComprehensive risk assessment across multiple fields is required to assess the potential utility of hydrogen energy technology. In this research, we analyzed environmental and socio-economic effects during the entire life cycle of a hydrogen energy system using input-output tables. The target system included hydrogen production by naphtha reforming, transportation to hydrogen stations, and FCV (Fuel Cell Vehicle) refilling. The results indicated that 31%, 44%, and 9% of the production, employment, and greenhouse gas (GHG) emission effects, respectively, during the manufacturing and construction stages were temporary. During the continuous operation and maintenance stages, these values were found to be 69%, 56%, and 91%, respectively. The effect of naphtha reforming was dominant in GHG emissions and the effect of electrical power input on the entire system was significant. Production and employment had notable effects in both the direct and indirect sectors, including manufacturing (pumps, compressors, and chemical machinery) and services (equipment maintenance and trade). This study used data to introduce a life cycle perspective to environmental and socio-economic analysis of hydrogen energy systems and the results will contribute to their comprehensive risk assessment in the future.https://www.mdpi.com/2071-1050/9/8/1376hydrogen energy systemsocio-economic effectenvironmental effectinput-output tablelife cycle inventory analysis |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Shunichi Hienuki |
spellingShingle |
Shunichi Hienuki Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan Sustainability hydrogen energy system socio-economic effect environmental effect input-output table life cycle inventory analysis |
author_facet |
Shunichi Hienuki |
author_sort |
Shunichi Hienuki |
title |
Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan |
title_short |
Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan |
title_full |
Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan |
title_fullStr |
Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan |
title_full_unstemmed |
Environmental and Socio-Economic Analysis of Naphtha Reforming Hydrogen Energy Using Input-Output Tables: A Case Study from Japan |
title_sort |
environmental and socio-economic analysis of naphtha reforming hydrogen energy using input-output tables: a case study from japan |
publisher |
MDPI AG |
series |
Sustainability |
issn |
2071-1050 |
publishDate |
2017-08-01 |
description |
Comprehensive risk assessment across multiple fields is required to assess the potential utility of hydrogen energy technology. In this research, we analyzed environmental and socio-economic effects during the entire life cycle of a hydrogen energy system using input-output tables. The target system included hydrogen production by naphtha reforming, transportation to hydrogen stations, and FCV (Fuel Cell Vehicle) refilling. The results indicated that 31%, 44%, and 9% of the production, employment, and greenhouse gas (GHG) emission effects, respectively, during the manufacturing and construction stages were temporary. During the continuous operation and maintenance stages, these values were found to be 69%, 56%, and 91%, respectively. The effect of naphtha reforming was dominant in GHG emissions and the effect of electrical power input on the entire system was significant. Production and employment had notable effects in both the direct and indirect sectors, including manufacturing (pumps, compressors, and chemical machinery) and services (equipment maintenance and trade). This study used data to introduce a life cycle perspective to environmental and socio-economic analysis of hydrogen energy systems and the results will contribute to their comprehensive risk assessment in the future. |
topic |
hydrogen energy system socio-economic effect environmental effect input-output table life cycle inventory analysis |
url |
https://www.mdpi.com/2071-1050/9/8/1376 |
work_keys_str_mv |
AT shunichihienuki environmentalandsocioeconomicanalysisofnaphthareforminghydrogenenergyusinginputoutputtablesacasestudyfromjapan |
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