Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant

碩士 === 清雲科技大學 === 電機工程系所 === 97 === The purposes of this thesis are to investigate the design of a multi-purpose OTEC plant (including power generation and deep sea water applications) and to build the proper power model and cost model. Under the consideration of sea water temperature changes in one...

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Main Authors: Hsin-Yi Lin, 林欣怡
Other Authors: 黃厚生
Format: Others
Language:zh-TW
Online Access:http://ndltd.ncl.edu.tw/handle/65253772332448453117
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spelling ndltd-TW-097CYU054420082016-05-02T04:11:12Z http://ndltd.ncl.edu.tw/handle/65253772332448453117 Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant 多目標海洋溫差發電廠最佳參數設計之研究 Hsin-Yi Lin 林欣怡 碩士 清雲科技大學 電機工程系所 97 The purposes of this thesis are to investigate the design of a multi-purpose OTEC plant (including power generation and deep sea water applications) and to build the proper power model and cost model. Under the consideration of sea water temperature changes in one year, the objective function is defined as OTEC plant cost-benefit (benefits include both electrical energy and water sales). The optimal parameter design of a multi-purpose OTEC power plant is solved by using Particle Swarm Optimization (PSO). It is expected that better cost-benefit can be obtained by using the idea of multi-purpose OTEC, except for power generation, which can also be applied to desalination, fishery, air conditioning and agriculture. The performance of PSO is compared with that of traditional Powell’s method. Test results show that the cost-benefit of multi-purpose OTEC power plant using global optimal solution of PSO is better than that of local optimal solution of Powell’s method. 黃厚生 學位論文 ; thesis 64 zh-TW
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language zh-TW
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description 碩士 === 清雲科技大學 === 電機工程系所 === 97 === The purposes of this thesis are to investigate the design of a multi-purpose OTEC plant (including power generation and deep sea water applications) and to build the proper power model and cost model. Under the consideration of sea water temperature changes in one year, the objective function is defined as OTEC plant cost-benefit (benefits include both electrical energy and water sales). The optimal parameter design of a multi-purpose OTEC power plant is solved by using Particle Swarm Optimization (PSO). It is expected that better cost-benefit can be obtained by using the idea of multi-purpose OTEC, except for power generation, which can also be applied to desalination, fishery, air conditioning and agriculture. The performance of PSO is compared with that of traditional Powell’s method. Test results show that the cost-benefit of multi-purpose OTEC power plant using global optimal solution of PSO is better than that of local optimal solution of Powell’s method.
author2 黃厚生
author_facet 黃厚生
Hsin-Yi Lin
林欣怡
author Hsin-Yi Lin
林欣怡
spellingShingle Hsin-Yi Lin
林欣怡
Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
author_sort Hsin-Yi Lin
title Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
title_short Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
title_full Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
title_fullStr Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
title_full_unstemmed Optimal Parameter Design of a Multi-purpose Ocean Thermal Energy Conversion Plant
title_sort optimal parameter design of a multi-purpose ocean thermal energy conversion plant
url http://ndltd.ncl.edu.tw/handle/65253772332448453117
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