A decision model for prioritizing geographic regions for cellulosic renewable energy

This paper proposes a decision model for prioritizing geographic provinces in Iran to produce renewable energy from cellulosic materials by applying the Analytic Network Process (ANP). Biomass (forest residues, agricultural waste and wood) is a cellulosic material that can be used to produce thermal...

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Autores principales: Majid Azizi, Fatemeh Rahimi, Charles D. Ray, Mehdi Faezipour, Mosen Ziaie
Formato: article
Lenguaje:EN
Publicado: Taylor & Francis Group 2016
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Acceso en línea:https://doaj.org/article/aff9bd13f053451c897df4cda48dad4a
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spelling oai:doaj.org-article:aff9bd13f053451c897df4cda48dad4a2021-12-02T14:35:46ZA decision model for prioritizing geographic regions for cellulosic renewable energy2331-197510.1080/23311975.2016.1249233https://doaj.org/article/aff9bd13f053451c897df4cda48dad4a2016-12-01T00:00:00Zhttp://dx.doi.org/10.1080/23311975.2016.1249233https://doaj.org/toc/2331-1975This paper proposes a decision model for prioritizing geographic provinces in Iran to produce renewable energy from cellulosic materials by applying the Analytic Network Process (ANP). Biomass (forest residues, agricultural waste and wood) is a cellulosic material that can be used to produce thermal energy, electricity, and transportation fuels. The abundance, renewability, versatility, and carbon-neutrality make biomass a suitable feedstock for energy applications, and as an alternative for fossil fuels. Nine provinces in Iran are considered as possible locations for establishing renewable energy units. The ANP is used to synthesize and analyze the model. In different situations, all the decisions were affected by external factors; hence, the value-weighted competency model (benefits, costs, opportunities and risks) is calculated in the first stage with the influence of external factors on the competency model. Hierarchical designs of decisions are made for each of the competencies and their subsets. Paired comparison matrices associated with the degree of importance of each of the competencies were achieved in the second stage. In the final stage, subsets of competencies’ weighting values and their sub-options are identified through combination of the competencies and the best location is obtained. Finally, a sensitivity analysis of the model is performed and evaluated.Majid AziziFatemeh RahimiCharles D. RayMehdi FaezipourMosen ZiaieTaylor & Francis Grouparticlebiomassrenewable energyprioritizinganpbenefitscostsopportunities and risksBusinessHF5001-6182Management. Industrial managementHD28-70ENCogent Business & Management, Vol 3, Iss 1 (2016)
institution DOAJ
collection DOAJ
language EN
topic biomass
renewable energy
prioritizing
anp
benefits
costs
opportunities and risks
Business
HF5001-6182
Management. Industrial management
HD28-70
spellingShingle biomass
renewable energy
prioritizing
anp
benefits
costs
opportunities and risks
Business
HF5001-6182
Management. Industrial management
HD28-70
Majid Azizi
Fatemeh Rahimi
Charles D. Ray
Mehdi Faezipour
Mosen Ziaie
A decision model for prioritizing geographic regions for cellulosic renewable energy
description This paper proposes a decision model for prioritizing geographic provinces in Iran to produce renewable energy from cellulosic materials by applying the Analytic Network Process (ANP). Biomass (forest residues, agricultural waste and wood) is a cellulosic material that can be used to produce thermal energy, electricity, and transportation fuels. The abundance, renewability, versatility, and carbon-neutrality make biomass a suitable feedstock for energy applications, and as an alternative for fossil fuels. Nine provinces in Iran are considered as possible locations for establishing renewable energy units. The ANP is used to synthesize and analyze the model. In different situations, all the decisions were affected by external factors; hence, the value-weighted competency model (benefits, costs, opportunities and risks) is calculated in the first stage with the influence of external factors on the competency model. Hierarchical designs of decisions are made for each of the competencies and their subsets. Paired comparison matrices associated with the degree of importance of each of the competencies were achieved in the second stage. In the final stage, subsets of competencies’ weighting values and their sub-options are identified through combination of the competencies and the best location is obtained. Finally, a sensitivity analysis of the model is performed and evaluated.
format article
author Majid Azizi
Fatemeh Rahimi
Charles D. Ray
Mehdi Faezipour
Mosen Ziaie
author_facet Majid Azizi
Fatemeh Rahimi
Charles D. Ray
Mehdi Faezipour
Mosen Ziaie
author_sort Majid Azizi
title A decision model for prioritizing geographic regions for cellulosic renewable energy
title_short A decision model for prioritizing geographic regions for cellulosic renewable energy
title_full A decision model for prioritizing geographic regions for cellulosic renewable energy
title_fullStr A decision model for prioritizing geographic regions for cellulosic renewable energy
title_full_unstemmed A decision model for prioritizing geographic regions for cellulosic renewable energy
title_sort decision model for prioritizing geographic regions for cellulosic renewable energy
publisher Taylor & Francis Group
publishDate 2016
url https://doaj.org/article/aff9bd13f053451c897df4cda48dad4a
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