P-graph approach to criticality analysis in integrated bioenergy systems

The use of integrated bioenergy systems (IBS) is a prospective solution to address the emergent global demand for clean energy. The sustainability of IBS compared to stand-alone biomass processing facilities is achieved through integration of process units or component plants via their bioenergy pro...

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Main Authors: Benjamin, Michael Francis D., Cayamanda, Christina D., Tan, Raymond Girard R., Razon, Luis F.
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Published: Animo Repository 2017
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Online Access:https://animorepository.dlsu.edu.ph/faculty_research/2258
https://animorepository.dlsu.edu.ph/context/faculty_research/article/3257/type/native/viewcontent
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Institution: De La Salle University
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spelling oai:animorepository.dlsu.edu.ph:faculty_research-32572021-08-20T06:50:35Z P-graph approach to criticality analysis in integrated bioenergy systems Benjamin, Michael Francis D. Cayamanda, Christina D. Tan, Raymond Girard R. Razon, Luis F. The use of integrated bioenergy systems (IBS) is a prospective solution to address the emergent global demand for clean energy. The sustainability of IBS compared to stand-alone biomass processing facilities is achieved through integration of process units or component plants via their bioenergy products, by-products, wastes, and common utilities. However, such increased component interdependency makes the resulting integrated energy system vulnerable to capacity disruptions. IBS in particular are vulnerable to climate change-induced events (e.g., drought) that reduce the availability of biomass feedstocks in bioenergy production. Cascading failure due to such supply-side disruptive event is an inherent risk in IBS and may pose a barrier to the commercial-scale adoption of such systems. A previous study developed a risk-based criticality index to quantify the effect of a component’s disruption within integrated energy systems. This index is used to rank the component’s relative risk in the network based on the ripple effects of its disruption. In this work, a novel P-graph approach is proposed as an alternative methodology for criticality analysis of component units or plants in an IBS. This risk-based metric can be used for developing risk management polices to protect critical facilities, thereby increasing the robustness of IBS against disruptions. Two case studies on determining the criticality index of process units in an integrated biorefinery and component plants in a bioenergy park are used to demonstrate the effectiveness of this method. © 2017, Springer-Verlag Berlin Heidelberg. 2017-01-01T08:00:00Z text text/html https://animorepository.dlsu.edu.ph/faculty_research/2258 https://animorepository.dlsu.edu.ph/context/faculty_research/article/3257/type/native/viewcontent Faculty Research Work Animo Repository Energy parks—Risk assessment Biomass chemicals Chemical Engineering
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
topic Energy parks—Risk assessment
Biomass chemicals
Chemical Engineering
spellingShingle Energy parks—Risk assessment
Biomass chemicals
Chemical Engineering
Benjamin, Michael Francis D.
Cayamanda, Christina D.
Tan, Raymond Girard R.
Razon, Luis F.
P-graph approach to criticality analysis in integrated bioenergy systems
description The use of integrated bioenergy systems (IBS) is a prospective solution to address the emergent global demand for clean energy. The sustainability of IBS compared to stand-alone biomass processing facilities is achieved through integration of process units or component plants via their bioenergy products, by-products, wastes, and common utilities. However, such increased component interdependency makes the resulting integrated energy system vulnerable to capacity disruptions. IBS in particular are vulnerable to climate change-induced events (e.g., drought) that reduce the availability of biomass feedstocks in bioenergy production. Cascading failure due to such supply-side disruptive event is an inherent risk in IBS and may pose a barrier to the commercial-scale adoption of such systems. A previous study developed a risk-based criticality index to quantify the effect of a component’s disruption within integrated energy systems. This index is used to rank the component’s relative risk in the network based on the ripple effects of its disruption. In this work, a novel P-graph approach is proposed as an alternative methodology for criticality analysis of component units or plants in an IBS. This risk-based metric can be used for developing risk management polices to protect critical facilities, thereby increasing the robustness of IBS against disruptions. Two case studies on determining the criticality index of process units in an integrated biorefinery and component plants in a bioenergy park are used to demonstrate the effectiveness of this method. © 2017, Springer-Verlag Berlin Heidelberg.
format text
author Benjamin, Michael Francis D.
Cayamanda, Christina D.
Tan, Raymond Girard R.
Razon, Luis F.
author_facet Benjamin, Michael Francis D.
Cayamanda, Christina D.
Tan, Raymond Girard R.
Razon, Luis F.
author_sort Benjamin, Michael Francis D.
title P-graph approach to criticality analysis in integrated bioenergy systems
title_short P-graph approach to criticality analysis in integrated bioenergy systems
title_full P-graph approach to criticality analysis in integrated bioenergy systems
title_fullStr P-graph approach to criticality analysis in integrated bioenergy systems
title_full_unstemmed P-graph approach to criticality analysis in integrated bioenergy systems
title_sort p-graph approach to criticality analysis in integrated bioenergy systems
publisher Animo Repository
publishDate 2017
url https://animorepository.dlsu.edu.ph/faculty_research/2258
https://animorepository.dlsu.edu.ph/context/faculty_research/article/3257/type/native/viewcontent
_version_ 1709757471584681984