Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge

Due to double salient structure, Flux Switching Machines (FSMs) are preferred for brushless AC high speed applications. Permanent Magnet (PM) FSMs (PM-FSMs) are suited applicants where high torque density (Tden) and power density (Pden) are the utmost requisite. However conventional PM-FSMs utilizes...

Full description

Bibliographic Details
Main Authors: Wasiq Ullah, Faisal Khan, Muhammad Umair
Format: Article
Language:English
Published: China Electrotechnical Society 2021-03-01
Series:CES Transactions on Electrical Machines and Systems
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9393749
_version_ 1797756409191858176
author Wasiq Ullah
Faisal Khan
Muhammad Umair
author_facet Wasiq Ullah
Faisal Khan
Muhammad Umair
author_sort Wasiq Ullah
collection DOAJ
description Due to double salient structure, Flux Switching Machines (FSMs) are preferred for brushless AC high speed applications. Permanent Magnet (PM) FSMs (PM-FSMs) are suited applicants where high torque density (Tden) and power density (Pden) are the utmost requisite. However conventional PM-FSMs utilizes excessive rare earth PM volume VPM, higher cogging torque Tcog, high torque ripples (Trip) and comparatively lower (Tden) and Pden due to flux leakage. To overcome the aforesaid demerits, a new high (Tden) Segmented PM Consequent Pole (CP) FSM (SPMCPFSM) with flux bridge and barrier is proposed which successfully reduces VPM by 46.52% and PM cost by 46.48%. Moreover, Multi-Objective Optimization (MOO) examines electromagnetic performance due to variation in geometric parameters for global optimum parameters with key metric such as flux linkage (Φpp), flux harmonics (ΦTHD) average torque (Tavg), Tcog, Trip, Tden, average power (Pavg) and Pden. Analysis reveals that MOO improve Φpp by 22.68%, boost Tavg by 11.41%, enhanced Pavg by 4.55% and increased Tden and Pden by 11.41%. Detailed electromagnetic performance comparison with existing state of the art shows that proposed SPMCPFSM offer Tavg maximum up to 88.8%, truncate Trip up to 24.8%, suppress Tcog up to 22.74%, and results 2.45 times Tden and Pden.
first_indexed 2024-03-12T18:00:59Z
format Article
id doaj.art-fc91bef7696f485cb63e764be12480e9
institution Directory Open Access Journal
issn 2096-3564
2837-0325
language English
last_indexed 2024-03-12T18:00:59Z
publishDate 2021-03-01
publisher China Electrotechnical Society
record_format Article
series CES Transactions on Electrical Machines and Systems
spelling doaj.art-fc91bef7696f485cb63e764be12480e92023-08-02T12:33:57ZengChina Electrotechnical SocietyCES Transactions on Electrical Machines and Systems2096-35642837-03252021-03-0151304010.30941/CESTEMS.2021.00005Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridgeWasiq Ullah0Faisal Khan1Muhammad Umair2Department of Electrical and Computer Engineering, COMSATS University Islamabad, Abbottabad Campus, 22060, PakistanDepartment of Electrical and Computer Engineering, COMSATS University Islamabad, Abbottabad Campus, 22060, PakistanDepartment of Electrical and Computer Engineering, COMSATS University Islamabad, Abbottabad Campus, 22060, PakistanDue to double salient structure, Flux Switching Machines (FSMs) are preferred for brushless AC high speed applications. Permanent Magnet (PM) FSMs (PM-FSMs) are suited applicants where high torque density (Tden) and power density (Pden) are the utmost requisite. However conventional PM-FSMs utilizes excessive rare earth PM volume VPM, higher cogging torque Tcog, high torque ripples (Trip) and comparatively lower (Tden) and Pden due to flux leakage. To overcome the aforesaid demerits, a new high (Tden) Segmented PM Consequent Pole (CP) FSM (SPMCPFSM) with flux bridge and barrier is proposed which successfully reduces VPM by 46.52% and PM cost by 46.48%. Moreover, Multi-Objective Optimization (MOO) examines electromagnetic performance due to variation in geometric parameters for global optimum parameters with key metric such as flux linkage (Φpp), flux harmonics (ΦTHD) average torque (Tavg), Tcog, Trip, Tden, average power (Pavg) and Pden. Analysis reveals that MOO improve Φpp by 22.68%, boost Tavg by 11.41%, enhanced Pavg by 4.55% and increased Tden and Pden by 11.41%. Detailed electromagnetic performance comparison with existing state of the art shows that proposed SPMCPFSM offer Tavg maximum up to 88.8%, truncate Trip up to 24.8%, suppress Tcog up to 22.74%, and results 2.45 times Tden and Pden.https://ieeexplore.ieee.org/document/9393749consequent polemulti-objective optimizationfinite element analysisoptimizationsegmented pmac machine
spellingShingle Wasiq Ullah
Faisal Khan
Muhammad Umair
Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
CES Transactions on Electrical Machines and Systems
consequent pole
multi-objective optimization
finite element analysis
optimization
segmented pm
ac machine
title Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
title_full Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
title_fullStr Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
title_full_unstemmed Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
title_short Multi-objective optimization of high torque density segmented PM consequent pole flux switching machine with flux bridge
title_sort multi objective optimization of high torque density segmented pm consequent pole flux switching machine with flux bridge
topic consequent pole
multi-objective optimization
finite element analysis
optimization
segmented pm
ac machine
url https://ieeexplore.ieee.org/document/9393749
work_keys_str_mv AT wasiqullah multiobjectiveoptimizationofhightorquedensitysegmentedpmconsequentpolefluxswitchingmachinewithfluxbridge
AT faisalkhan multiobjectiveoptimizationofhightorquedensitysegmentedpmconsequentpolefluxswitchingmachinewithfluxbridge
AT muhammadumair multiobjectiveoptimizationofhightorquedensitysegmentedpmconsequentpolefluxswitchingmachinewithfluxbridge