Development of P-graph approach for designing polygeneration systems

Polygeneration systems reduce the use of resources while at the same time produces power and other products such as heat and cooling services. The traditional way of designing process systems such as polygeneration plants uses mixed integer linear programming (MILP). Another way of designing polygen...

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التفاصيل البيبلوغرافية
المؤلف الرئيسي: Cayamanda, Christina D.
التنسيق: text
اللغة:English
منشور في: Animo Repository 2014
الوصول للمادة أونلاين:https://animorepository.dlsu.edu.ph/etd_masteral/4626
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المؤسسة: De La Salle University
اللغة: English
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spelling oai:animorepository.dlsu.edu.ph:etd_masteral-114642021-01-28T01:54:54Z Development of P-graph approach for designing polygeneration systems Cayamanda, Christina D. Polygeneration systems reduce the use of resources while at the same time produces power and other products such as heat and cooling services. The traditional way of designing process systems such as polygeneration plants uses mixed integer linear programming (MILP). Another way of designing polygeneration systems besides MILP is to use graph-theory based approach such as P-graph. P-graph is used in designing network systems such as chemical and manufacturing plants, reaction kinetics, transportation, work allocation, and supply chains. This thesis developed the P-graph methodology for designing polygeneration systems starting from a simple trigeneration system progressing to a polygeneration system with biochar production. The progression of complexity of the design problem was done incrementally. The objective function of each design was to maximize the profit of the polygeneration system. The result of the P-graph design of each case study resulted in two solution structures where the optimal design of each polygeneration design was based in economic potential. For the simple trigeneration system the optimal design has an annual profit of 48,680.32 €, for polygeneration system with purified water production the optimal design has an annual profit of 306,838.90 €, for the polygeneration systems with biomass as part of feed the optimal design has an annual profit of 84,418.61 €, and for polygeneration systems with biochar production has an annual profit of 695,980.60 €. Therefore, it is possible to design polygeneration systems with more than two main products using P-graph where the objective function of each design was based on maximizing the profit. It is also possible for P-graph to generate more than one solution for each design compared with conventional methods such as MILP. However, P-graph is limited to designs with linear models compared with other optimizing programs such as LINGO where it can be used for non-linear models. 2014-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/etd_masteral/4626 Master's Theses English Animo Repository
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
language English
description Polygeneration systems reduce the use of resources while at the same time produces power and other products such as heat and cooling services. The traditional way of designing process systems such as polygeneration plants uses mixed integer linear programming (MILP). Another way of designing polygeneration systems besides MILP is to use graph-theory based approach such as P-graph. P-graph is used in designing network systems such as chemical and manufacturing plants, reaction kinetics, transportation, work allocation, and supply chains. This thesis developed the P-graph methodology for designing polygeneration systems starting from a simple trigeneration system progressing to a polygeneration system with biochar production. The progression of complexity of the design problem was done incrementally. The objective function of each design was to maximize the profit of the polygeneration system. The result of the P-graph design of each case study resulted in two solution structures where the optimal design of each polygeneration design was based in economic potential. For the simple trigeneration system the optimal design has an annual profit of 48,680.32 €, for polygeneration system with purified water production the optimal design has an annual profit of 306,838.90 €, for the polygeneration systems with biomass as part of feed the optimal design has an annual profit of 84,418.61 €, and for polygeneration systems with biochar production has an annual profit of 695,980.60 €. Therefore, it is possible to design polygeneration systems with more than two main products using P-graph where the objective function of each design was based on maximizing the profit. It is also possible for P-graph to generate more than one solution for each design compared with conventional methods such as MILP. However, P-graph is limited to designs with linear models compared with other optimizing programs such as LINGO where it can be used for non-linear models.
format text
author Cayamanda, Christina D.
spellingShingle Cayamanda, Christina D.
Development of P-graph approach for designing polygeneration systems
author_facet Cayamanda, Christina D.
author_sort Cayamanda, Christina D.
title Development of P-graph approach for designing polygeneration systems
title_short Development of P-graph approach for designing polygeneration systems
title_full Development of P-graph approach for designing polygeneration systems
title_fullStr Development of P-graph approach for designing polygeneration systems
title_full_unstemmed Development of P-graph approach for designing polygeneration systems
title_sort development of p-graph approach for designing polygeneration systems
publisher Animo Repository
publishDate 2014
url https://animorepository.dlsu.edu.ph/etd_masteral/4626
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