Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia

Linear permanent magnet generator (LPMG) is an essential component in recent wave energy converter (WEC) which exploits wave’s heave motion. It could be classified into tubular-type, flat-tricore type, and quasi-flat type. In previous researches, these three models have been studied and designed for...

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Main Authors: Budi Azhari, Fransisco Danang Wijaya
Format: Article
Language:English
Published: Indonesian Institute of Sciences 2019-12-01
Series:Journal of Mechatronics, Electrical Power, and Vehicular Technology
Subjects:
Online Access:http://mevjournal.com/index.php/mev/article/view/455
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spelling doaj-7c36890a69fa4da29bff5c231f99b1722020-11-25T03:43:14ZengIndonesian Institute of SciencesJournal of Mechatronics, Electrical Power, and Vehicular Technology2087-33792088-69852019-12-01101293510.14203/j.mev.2019.v10.29-35220Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in IndonesiaBudi Azhari0Fransisco Danang Wijaya1Indonesian Institute of ScienceUniversitas Gadjah MadaLinear permanent magnet generator (LPMG) is an essential component in recent wave energy converter (WEC) which exploits wave’s heave motion. It could be classified into tubular-type, flat-tricore type, and quasi-flat type. In previous researches, these three models have been studied and designed for pico-scale WEC. Design optimization has further been conducted for flat-tricore LPMG, by using simulated annealing (SA) algorithm. It modified some parameters to minimize the resulted copper loss. This paper aims to optimize a quasi-flat LPMG design by applying SA algorithm. The algorithm would readjust the initial LPMG parts dimension. Then, the output of the optimized design would be analyzed and compared. The results showed that the optimization could reduce the copper loss by up to 73.64 % and increase the efficiency from 83.2 % to 95.57 %. For various load resistances, the optimized design also produces larger efficiency. However, the optimized design has a larger size and produces larger cogging force than the initial design.http://mevjournal.com/index.php/mev/article/view/455design optimizationcopper losssimulated annealingquasi-flat lpmg
collection DOAJ
language English
format Article
sources DOAJ
author Budi Azhari
Fransisco Danang Wijaya
spellingShingle Budi Azhari
Fransisco Danang Wijaya
Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
Journal of Mechatronics, Electrical Power, and Vehicular Technology
design optimization
copper loss
simulated annealing
quasi-flat lpmg
author_facet Budi Azhari
Fransisco Danang Wijaya
author_sort Budi Azhari
title Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
title_short Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
title_full Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
title_fullStr Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
title_full_unstemmed Quasi-flat linear PM generator optimization using simulated annealing algorithm for WEC in Indonesia
title_sort quasi-flat linear pm generator optimization using simulated annealing algorithm for wec in indonesia
publisher Indonesian Institute of Sciences
series Journal of Mechatronics, Electrical Power, and Vehicular Technology
issn 2087-3379
2088-6985
publishDate 2019-12-01
description Linear permanent magnet generator (LPMG) is an essential component in recent wave energy converter (WEC) which exploits wave’s heave motion. It could be classified into tubular-type, flat-tricore type, and quasi-flat type. In previous researches, these three models have been studied and designed for pico-scale WEC. Design optimization has further been conducted for flat-tricore LPMG, by using simulated annealing (SA) algorithm. It modified some parameters to minimize the resulted copper loss. This paper aims to optimize a quasi-flat LPMG design by applying SA algorithm. The algorithm would readjust the initial LPMG parts dimension. Then, the output of the optimized design would be analyzed and compared. The results showed that the optimization could reduce the copper loss by up to 73.64 % and increase the efficiency from 83.2 % to 95.57 %. For various load resistances, the optimized design also produces larger efficiency. However, the optimized design has a larger size and produces larger cogging force than the initial design.
topic design optimization
copper loss
simulated annealing
quasi-flat lpmg
url http://mevjournal.com/index.php/mev/article/view/455
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AT fransiscodanangwijaya quasiflatlinearpmgeneratoroptimizationusingsimulatedannealingalgorithmforwecinindonesia
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