Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation

A biomass energy system (BES) consists of highly integrated process units within a network. Via process integration, such system can achieve higher thermodynamic efficiency levels and economic performance as compared to conventional stand-alone systems. However, such benefits may not be realised if...

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Main Authors: Andiappan, Viknesh, Benjamin, Michael Francis D., Tan, Raymond Girard R., Ng, Denny K. S.
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Published: Animo Repository 2017
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Online Access:https://animorepository.dlsu.edu.ph/faculty_research/3333
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Institution: De La Salle University
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spelling oai:animorepository.dlsu.edu.ph:faculty_research-43232021-05-05T03:46:01Z Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation Andiappan, Viknesh Benjamin, Michael Francis D. Tan, Raymond Girard R. Ng, Denny K. S. A biomass energy system (BES) consists of highly integrated process units within a network. Via process integration, such system can achieve higher thermodynamic efficiency levels and economic performance as compared to conventional stand-alone systems. However, such benefits may not be realised if an energy system is not equipped to cope with failure of its component process units. A failure event can cause "ripple effects" to propagate throughout the BES and disrupt its overall performance. To address this, designers often allocate additional or redundant process units for the entire BES. However, this approach requires high capital investment; thus, redundancy allocation for the entire BES would not be possible. An appropriate resolution for this issue would be to identify the most critical process unit in the BES prior to allocating equipment redundancy. In this respect, this work presents a decision making framework for designing BES by addressing criticality of process units via redundancy allocation. The first stage of the framework consists of criticality analysis approach based on input-output (I-O) analysis. The criticality analysis identifies the most crucial process unit by quantifying the effect of a component's disruption within the BES. After identifying the most critical process unit, the second stage of the framework allows designers to systematically allocate equipment redundancy based on their budget restrictions via k-out-m system modelling or process intensification. To demonstrate the proposed framework, a palm-based BES case study is solved. © 2017, AIDIC Servizi S.r.l. 2017-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/faculty_research/3333 info:doi/10.3303/CET1761129 Faculty Research Work Animo Repository Biomass energy Chemical Engineering Energy Systems
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 Biomass energy
Chemical Engineering
Energy Systems
spellingShingle Biomass energy
Chemical Engineering
Energy Systems
Andiappan, Viknesh
Benjamin, Michael Francis D.
Tan, Raymond Girard R.
Ng, Denny K. S.
Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
description A biomass energy system (BES) consists of highly integrated process units within a network. Via process integration, such system can achieve higher thermodynamic efficiency levels and economic performance as compared to conventional stand-alone systems. However, such benefits may not be realised if an energy system is not equipped to cope with failure of its component process units. A failure event can cause "ripple effects" to propagate throughout the BES and disrupt its overall performance. To address this, designers often allocate additional or redundant process units for the entire BES. However, this approach requires high capital investment; thus, redundancy allocation for the entire BES would not be possible. An appropriate resolution for this issue would be to identify the most critical process unit in the BES prior to allocating equipment redundancy. In this respect, this work presents a decision making framework for designing BES by addressing criticality of process units via redundancy allocation. The first stage of the framework consists of criticality analysis approach based on input-output (I-O) analysis. The criticality analysis identifies the most crucial process unit by quantifying the effect of a component's disruption within the BES. After identifying the most critical process unit, the second stage of the framework allows designers to systematically allocate equipment redundancy based on their budget restrictions via k-out-m system modelling or process intensification. To demonstrate the proposed framework, a palm-based BES case study is solved. © 2017, AIDIC Servizi S.r.l.
format text
author Andiappan, Viknesh
Benjamin, Michael Francis D.
Tan, Raymond Girard R.
Ng, Denny K. S.
author_facet Andiappan, Viknesh
Benjamin, Michael Francis D.
Tan, Raymond Girard R.
Ng, Denny K. S.
author_sort Andiappan, Viknesh
title Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
title_short Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
title_full Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
title_fullStr Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
title_full_unstemmed Systematic framework for design of biomass energy systems: Addressing criticality via redundancy allocation
title_sort systematic framework for design of biomass energy systems: addressing criticality via redundancy allocation
publisher Animo Repository
publishDate 2017
url https://animorepository.dlsu.edu.ph/faculty_research/3333
_version_ 1767195879041662976