Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis

In this paper, the optimum shape design of 550 kV disconnectors in Gas Insulated Switchgears (GIS) are firstly presented employing the Finite Element Method (FEM) for electric field analysis coupled with an optimal design method. For effective analysis, the FEM is conducted in transient quasistatic...

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Main Authors: R. Gong, S. Wang, X. Luo, M. Danikas
Format: Article
Language:English
Published: D. G. Pylarinos 2015-08-01
Series:Engineering, Technology & Applied Science Research
Subjects:
RSM
FEM
Online Access:http://etasr.com/index.php/ETASR/article/download/567/298
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spelling doaj-6281088538ad42479d38d2d9fa7cf5f52020-12-02T00:09:47ZengD. G. PylarinosEngineering, Technology & Applied Science Research2241-44871792-80362015-08-0154818824Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element AnalysisR. Gong0S. Wang1 X. Luo2M. Danikas3School of Electrical Engineering, Xi’an Jiaotong University, ChinaSchool of Electrical Engineering, Xi’an Jiaotong University, ChinaSchool of Electrical Engineering, Xi’an Jiaotong University, ChinaDepartment of Electrical & Computer Engineering, Democritus University of Thrace, GreeceIn this paper, the optimum shape design of 550 kV disconnectors in Gas Insulated Switchgears (GIS) are firstly presented employing the Finite Element Method (FEM) for electric field analysis coupled with an optimal design method. For effective analysis, the FEM is conducted in transient quasistatic electric field, using a finite element FORTRAN code. The structure parameters of disconnectors that provide the required electric field strength are obtained by the Response Surface Method (RSM) and the optimal values are presented by the variation in maximal electric field strength. The RSM and optimal design methods are also conducted by FORTRAN codes. The optimal result reveals that a uniform electric field distribution is achieved in 550 kV disconnectors. Additionally, the optimal result of disconnectors is verified by the proposed disconnector undertaken power frequency withstanding voltage of 740 kV for 1 minute, lightening impulse of 1675 kV, and operating impulse of 1300 kV, respectively.http://etasr.com/index.php/ETASR/article/download/567/298Disconnectorsresponse surface methodRSMoptimizationstructure designfinite element methodFEM
collection DOAJ
language English
format Article
sources DOAJ
author R. Gong
S. Wang
X. Luo
M. Danikas
spellingShingle R. Gong
S. Wang
X. Luo
M. Danikas
Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
Engineering, Technology & Applied Science Research
Disconnectors
response surface method
RSM
optimization
structure design
finite element method
FEM
author_facet R. Gong
S. Wang
X. Luo
M. Danikas
author_sort R. Gong
title Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
title_short Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
title_full Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
title_fullStr Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
title_full_unstemmed Optimum Shape Design of Metal-Enclosed 550 kV Disconnectors Based on Response Surface Method and Finite Element Analysis
title_sort optimum shape design of metal-enclosed 550 kv disconnectors based on response surface method and finite element analysis
publisher D. G. Pylarinos
series Engineering, Technology & Applied Science Research
issn 2241-4487
1792-8036
publishDate 2015-08-01
description In this paper, the optimum shape design of 550 kV disconnectors in Gas Insulated Switchgears (GIS) are firstly presented employing the Finite Element Method (FEM) for electric field analysis coupled with an optimal design method. For effective analysis, the FEM is conducted in transient quasistatic electric field, using a finite element FORTRAN code. The structure parameters of disconnectors that provide the required electric field strength are obtained by the Response Surface Method (RSM) and the optimal values are presented by the variation in maximal electric field strength. The RSM and optimal design methods are also conducted by FORTRAN codes. The optimal result reveals that a uniform electric field distribution is achieved in 550 kV disconnectors. Additionally, the optimal result of disconnectors is verified by the proposed disconnector undertaken power frequency withstanding voltage of 740 kV for 1 minute, lightening impulse of 1675 kV, and operating impulse of 1300 kV, respectively.
topic Disconnectors
response surface method
RSM
optimization
structure design
finite element method
FEM
url http://etasr.com/index.php/ETASR/article/download/567/298
work_keys_str_mv AT rgong optimumshapedesignofmetalenclosed550kvdisconnectorsbasedonresponsesurfacemethodandfiniteelementanalysis
AT swang optimumshapedesignofmetalenclosed550kvdisconnectorsbasedonresponsesurfacemethodandfiniteelementanalysis
AT xluo optimumshapedesignofmetalenclosed550kvdisconnectorsbasedonresponsesurfacemethodandfiniteelementanalysis
AT mdanikas optimumshapedesignofmetalenclosed550kvdisconnectorsbasedonresponsesurfacemethodandfiniteelementanalysis
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