Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems
碩士 === 中原大學 === 電機工程研究所 === 102 === The main purpose of thesis is to design a grid-tied wind power generating system with maximum power point tracking (MPPT) performance. To transfer the wind power to electric power access the utility grid, a two-stage power converters containing a z-source converte...
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ndltd-TW-102CYCU54420572015-10-13T23:49:48Z http://ndltd.ncl.edu.tw/handle/19111405293438678775 Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems 風力發電市電併聯系統之類神經網路分數階PID功率控制 Wei-Jei Hong 洪偉傑 碩士 中原大學 電機工程研究所 102 The main purpose of thesis is to design a grid-tied wind power generating system with maximum power point tracking (MPPT) performance. To transfer the wind power to electric power access the utility grid, a two-stage power converters containing a z-source converter and a full-bridge DC/AC inverter are applied on the wind power generating system. In order to achieve high efficiency and to stabilize output power, we design a neural network based fractional-order PID (FOPID) for the output current tracking of the DC/AC inverter. The neural network based fractional order PID controller can adjust the control parameter by itself for different environment. The numerical simulation and experimental results can show the response of the NN-FOPID controller is better than PI controller. Therefore, fast convergence of the MPPT can be assured even if the wind speed is rapidly varying. Chian-Song Chiu 邱謙松 2014 學位論文 ; thesis 100 en_US |
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碩士 === 中原大學 === 電機工程研究所 === 102 === The main purpose of thesis is to design a grid-tied wind power generating system with maximum power point tracking (MPPT) performance. To transfer the wind power to electric power access the utility grid, a two-stage power converters containing a z-source converter and a full-bridge DC/AC inverter are applied on the wind power generating system. In order to achieve high efficiency and to stabilize output power, we design a neural network based fractional-order PID (FOPID) for the output current tracking of the DC/AC inverter. The neural network based fractional order PID controller can adjust the control parameter by itself for different environment. The numerical simulation and experimental results can show the response of the NN-FOPID controller is better than PI controller. Therefore, fast convergence of the MPPT can be assured even if the wind speed is rapidly varying.
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Chian-Song Chiu |
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Chian-Song Chiu Wei-Jei Hong 洪偉傑 |
author |
Wei-Jei Hong 洪偉傑 |
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Wei-Jei Hong 洪偉傑 Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
author_sort |
Wei-Jei Hong |
title |
Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
title_short |
Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
title_full |
Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
title_fullStr |
Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
title_full_unstemmed |
Neural Network FOPID Power Control for Grid-tied Wind Energy Conversion Systems |
title_sort |
neural network fopid power control for grid-tied wind energy conversion systems |
publishDate |
2014 |
url |
http://ndltd.ncl.edu.tw/handle/19111405293438678775 |
work_keys_str_mv |
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