Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor

Single-phase motors are known for their small power ratings and their usage in various household appliances. Although they are not large electricity consumers, their widespread application contributes to the overall electricity consumption. In addition, standard IEC 60034-30-1:214 defines the effici...

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Main Authors: Vasilija Sarac, Tatjana Atanasova-Pacemska
Format: Article
Language:English
Published: Hindawi Limited 2019-01-01
Series:Mathematical Problems in Engineering
Online Access:http://dx.doi.org/10.1155/2019/5131696
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spelling doaj-a18694d5563d4c70bd8af2eb198511432020-11-25T00:21:16ZengHindawi LimitedMathematical Problems in Engineering1024-123X1563-51472019-01-01201910.1155/2019/51316965131696Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor MotorVasilija Sarac0Tatjana Atanasova-Pacemska1Faculty of Electrical Engineering, Goce Delcev University, P.O. Box 201, 2000 Stip, MacedoniaFaculty of Electrical Engineering, Goce Delcev University, P.O. Box 201, 2000 Stip, MacedoniaSingle-phase motors are known for their small power ratings and their usage in various household appliances. Although they are not large electricity consumers, their widespread application contributes to the overall electricity consumption. In addition, standard IEC 60034-30-1:214 defines the efficiency levels for single- and three-phase motors and stipulates the increased electrical efficiency for the electrical motors. Therefore, this paper sets the parametric analysis of permanently split capacitor motor with five different design parameters that have impact on the efficiency of the motor. As an output from the parametric analysis, two different optimized motor models are obtained with increased efficiency. The impact of each parameter on motor efficiency—as well as on the other operating characteristics, like starting torque, overloading capacity, rated current, starting current, total losses, and power factor—is analyzed and adequate conclusions are derived. The obtained motor models are verified with Finite Element Method (FEM) for magnetic flux density distribution.http://dx.doi.org/10.1155/2019/5131696
collection DOAJ
language English
format Article
sources DOAJ
author Vasilija Sarac
Tatjana Atanasova-Pacemska
spellingShingle Vasilija Sarac
Tatjana Atanasova-Pacemska
Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
Mathematical Problems in Engineering
author_facet Vasilija Sarac
Tatjana Atanasova-Pacemska
author_sort Vasilija Sarac
title Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
title_short Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
title_full Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
title_fullStr Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
title_full_unstemmed Multiparameter Analysis for Efficiency Improvement of Single-Phase Capacitor Motor
title_sort multiparameter analysis for efficiency improvement of single-phase capacitor motor
publisher Hindawi Limited
series Mathematical Problems in Engineering
issn 1024-123X
1563-5147
publishDate 2019-01-01
description Single-phase motors are known for their small power ratings and their usage in various household appliances. Although they are not large electricity consumers, their widespread application contributes to the overall electricity consumption. In addition, standard IEC 60034-30-1:214 defines the efficiency levels for single- and three-phase motors and stipulates the increased electrical efficiency for the electrical motors. Therefore, this paper sets the parametric analysis of permanently split capacitor motor with five different design parameters that have impact on the efficiency of the motor. As an output from the parametric analysis, two different optimized motor models are obtained with increased efficiency. The impact of each parameter on motor efficiency—as well as on the other operating characteristics, like starting torque, overloading capacity, rated current, starting current, total losses, and power factor—is analyzed and adequate conclusions are derived. The obtained motor models are verified with Finite Element Method (FEM) for magnetic flux density distribution.
url http://dx.doi.org/10.1155/2019/5131696
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