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电动客车永磁同步电机设计与参数研究一、本文概述Overviewofthisarticle随着电动汽车的快速发展,电动客车作为公共交通的重要组成部分,其性能的提升与技术的创新显得尤为重要。作为电动客车的核心部件,永磁同步电机(PMSM)的设计与研究对于提升电动客车的动力性、经济性和环保性具有决定性作用。本文旨在对电动客车永磁同步电机的设计与参数进行深入探讨,以期为我国电动客车永磁同步电机的研发与应用提供理论支撑与实践指导。Withtherapiddevelopmentofelectricvehicles,asanimportantcomponentofpublictransportation,theimprovementofperformanceandtechnologicalinnovationofelectricbusesareparticularlyimportant.Asthecorecomponentofelectricbuses,thedesignandresearchofpermanentmagnetsynchronousmotors(PMSM)playadecisiveroleinimprovingthepower,economy,andenvironmentalfriendlinessofelectricbuses.Thisarticleaimstodeeplyexplorethedesignandparametersofpermanentmagnetsynchronousmotorsforelectricbuses,inordertoprovidetheoreticalsupportandpracticalguidancefortheresearchandapplicationofpermanentmagnetsynchronousmotorsforelectricbusesinChina.本文首先概述了电动客车永磁同步电机的研究背景和意义,介绍了当前国内外在该领域的研究进展和现状。随后,详细阐述了永磁同步电机的基本原理、结构特点以及控制方式,为后续的设计参数研究提供了理论基础。在参数研究方面,本文重点分析了永磁同步电机的关键参数,如额定功率、额定电压、额定电流、极数、槽数、绕组形式、永磁体材料等,探讨了这些参数对电机性能的影响及其优化方法。Thisarticlefirstoutlinestheresearchbackgroundandsignificanceofpermanentmagnetsynchronousmotorsforelectricbuses,andintroducesthecurrentresearchprogressandstatusinthisfieldbothdomesticallyandinternationally.Subsequently,thebasicprinciples,structuralcharacteristics,andcontrolmethodsofpermanentmagnetsynchronousmotorswereelaboratedindetail,providingatheoreticalbasisforsubsequentdesignparameterresearch.Intermsofparameterresearch,thisarticlefocusesonanalyzingthekeyparametersofpermanentmagnetsynchronousmotors,suchasratedpower,ratedvoltage,ratedcurrent,numberofpoles,numberofslots,windingform,permanentmagnetmaterial,etc.,andexplorestheimpactoftheseparametersonmotorperformanceandoptimizationmethods.本文还通过对实际案例的分析,验证了所提设计与参数优化方法的有效性和可行性。总结了电动客车永磁同步电机设计与参数研究的主要成果和结论,展望了未来的研究方向和应用前景。本文的研究成果将为电动客车永磁同步电机的优化设计提供有益的参考和借鉴,推动电动客车技术的持续发展与进步。Thisarticlealsoverifiestheeffectivenessandfeasibilityoftheproposeddesignandparameteroptimizationmethodthroughtheanalysisofactualcases.Thispapersummarizesthemainachievementsandconclusionsofthedesignandparameterresearchofpermanentmagnetsynchronousmotorsforelectricbuses,andlooksforwardtofutureresearchdirectionsandapplicationprospects.Theresearchresultsofthisarticlewillprovideusefulreferenceandinspirationfortheoptimizationdesignofpermanentmagnetsynchronousmotorsinelectricbuses,andpromotethecontinuousdevelopmentandprogressofelectricbustechnology.二、永磁同步电机的基本原理与结构Thebasicprincipleandstructureofpermanentmagnetsynchronousmotors永磁同步电机(PermanentMagnetSynchronousMotor,PMSM)是一种利用永磁体产生磁场,实现电能到机械能转换的装置。其基本原理基于电磁感应定律和磁场相互作用原理。当电机定子绕组通电时,产生旋转磁场,与永磁体产生的固定磁场相互作用,导致电机转子旋转,从而实现电能到机械能的转换。PermanentMagnetSynchronousMotor(PMSM)isadevicethatutilizespermanentmagnetstogenerateamagneticfieldandconvertelectricalenergytomechanicalenergy.Itsbasicprincipleisbasedonthelawofelectromagneticinductionandtheprincipleofmagneticfieldinteraction.Whenthestatorwindingofthemotorisenergized,arotatingmagneticfieldisgenerated,whichinteractswiththefixedmagneticfieldgeneratedbythepermanentmagnet,causingthemotorrotortorotate,therebyachievingtheconversionofelectricalenergytomechanicalenergy.永磁同步电机的结构主要包括定子、转子和端盖等部分。定子主要由定子铁心和定子绕组组成,其中定子铁心通常采用硅钢片叠压而成,以减少铁损;定子绕组则根据电机设计要求进行绕制,通常采用三相星形或三角形接线方式。转子则主要由永磁体和转子铁心组成,其中永磁体通常采用高性能的稀土永磁材料,如钕铁硼(NdFeB)等,以提供强大的磁场;转子铁心则主要起到支撑永磁体的作用,同时减少磁通泄漏。Thestructureofpermanentmagnetsynchronousmotormainlyincludesstator,rotor,andendcover.Thestatorismainlycomposedofstatorcoreandstatorwinding,andthestatorcoreisusuallymadeofsiliconsteelsheetsstackedtoreduceironloss;Thestatorwindingiswoundaccordingtothemotordesignrequirements,usuallyusingthree-phasestarordeltaconnectionmethods.Therotorismainlycomposedofapermanentmagnetandarotorironcore,amongwhichthepermanentmagnetusuallyuseshigh-performancerareearthpermanentmagnetmaterials,suchasneodymiumironboron(NdFeB),toprovideastrongmagneticfield;Therotorcoremainlyservestosupportthepermanentmagnetandreducemagneticfluxleakage.在永磁同步电机中,定子和转子的磁场相互作用产生转矩,使电机旋转。电机的旋转速度可以通过控制定子绕组的电流频率和相位进行调节,从而实现电机的调速和控制。由于永磁同步电机具有结构简单、效率高、调速范围宽等优点,因此在电动客车等交通工具中得到了广泛应用。Inpermanentmagnetsynchronousmotors,theinteractionbetweenthemagneticfieldsofthestatorandrotorgeneratestorque,causingthemotortorotate.Therotationspeedofthemotorcanbeadjustedbycontrollingthecurrentfrequencyandphaseofthestatorwinding,therebyachievingspeedregulationandcontrolofthemotor.Duetoitssimplestructure,highefficiency,andwidespeedrange,permanentmagnetsynchronousmotorshavebeenwidelyusedintransportationvehiclessuchaselectricbuses.然而,永磁同步电机的设计参数对电机的性能具有重要影响。因此,在电动客车永磁同步电机设计与参数研究过程中,需要综合考虑电机的性能要求、工作环境、材料成本等因素,对电机的主要设计参数进行优化和选择,以确保电机在满足性能要求的具有较好的经济性和可靠性。However,thedesignparametersofpermanentmagnetsynchronousmotorshaveasignificantimpactontheperformanceofthemotor.Therefore,inthedesignandparameterresearchprocessofpermanentmagnetsynchronousmotorsforelectricbuses,itisnecessarytocomprehensivelyconsiderfactorssuchasmotorperformancerequirements,workingenvironment,materialcost,etc.,optimizeandselectthemaindesignparametersofthemotortoensurethatthemotorhasgoodeconomyandreliabilitywhilemeetingperformancerequirements.三、永磁同步电机设计DesignofPermanentMagnetSynchronousMotor永磁同步电机(PermanentMagnetSynchronousMotor,PMSM)是一种广泛应用于电动客车的高性能驱动电机。由于其具有高效率、高功率密度以及优秀的调速性能等特点,使得永磁同步电机成为电动客车动力系统的理想选择。在永磁同步电机的设计过程中,主要需要考虑以下几个方面:电机尺寸、绕组设计、永磁体材料选择和布局、热设计等。PermanentMagnetSynchronousMotor(PMSM)isahigh-performancedrivemotorwidelyusedinelectricbuses.Duetoitshighefficiency,highpowerdensity,andexcellentspeedregulationperformance,permanentmagnetsynchronousmotorhasbecomeanidealchoiceforthepowersystemofelectricbuses.Inthedesignprocessofpermanentmagnetsynchronousmotors,thefollowingaspectsneedtobeconsidered:motorsize,windingdesign,selectionandlayoutofpermanentmagnetmaterials,thermaldesign,etc.电机尺寸设计:电机尺寸设计是永磁同步电机设计的第一步,它直接决定了电机的功率和扭矩输出。电机尺寸设计需要综合考虑电动客车的动力需求、车辆空间限制以及电机的冷却方式等因素。通常,电机的尺寸设计需要满足电动客车在各种运行工况下的动力需求,同时又要尽量减小电机的体积和重量,以提高整车的能效和行驶里程。Motorsizedesign:Motorsizedesignisthefirststepinthedesignofpermanentmagnetsynchronousmotors,whichdirectlydeterminesthepowerandtorqueoutputofthemotor.Thesizedesignofthemotorneedstocomprehensivelyconsiderfactorssuchasthepowerdemandoftheelectricbus,vehiclespacelimitations,andthecoolingmethodofthemotor.Usually,thesizedesignofthemotorneedstomeetthepowerrequirementsofelectricbusesundervariousoperatingconditions,whilealsominimizingthevolumeandweightofthemotortoimprovetheenergyefficiencyanddrivingrangeoftheentirevehicle.绕组设计:绕组是电机中实现电磁转换的关键部件,其设计对电机的性能有着重要影响。绕组设计需要考虑电线的材料、截面积、匝数以及绕组的布局等因素。合理的绕组设计可以提高电机的电磁性能,减小电机的铜耗和铁耗,从而提高电机的效率。Windingdesign:Thewindingisakeycomponentinachievingelectromagneticconversioninthemotor,anditsdesignhasasignificantimpactontheperformanceofthemotor.Thewindingdesignneedstoconsiderfactorssuchasthematerial,cross-sectionalarea,numberofturnsofthewire,andthelayoutofthewinding.Reasonablewindingdesigncanimprovetheelectromagneticperformanceofthemotor,reducethecopperandironlossesofthemotor,andthusimprovetheefficiencyofthemotor.永磁体材料选择和布局:永磁体是永磁同步电机中提供磁场的关键部件,其材料和布局对电机的性能有着决定性的影响。常用的永磁体材料有钕铁硼(NdFeB)和铁氧体等。这些材料各有优缺点,需要根据电动客车的具体需求和电机的设计目标进行选择。永磁体的布局也需要进行优化设计,以充分利用永磁体的磁场,提高电机的性能。Materialselectionandlayoutofpermanentmagnets:Permanentmagnetsarekeycomponentsthatprovidemagneticfieldsinpermanentmagnetsynchronousmotors,andtheirmaterialsandlayouthaveadecisiveimpactontheperformanceofthemotor.Commonlyusedpermanentmagnetmaterialsincludeneodymiumironboron(NdFeB)andferrite.Thesematerialseachhavetheirownadvantagesanddisadvantages,andneedtobeselectedbasedonthespecificneedsofelectricbusesandthedesigngoalsofmotors.Thelayoutofpermanentmagnetsalsoneedstobeoptimizedtofullyutilizetheirmagneticfieldandimprovetheperformanceofthemotor.热设计:电机在运行过程中会产生大量的热量,如果不能及时散出,会导致电机热失效。因此,热设计是永磁同步电机设计中非常重要的一环。热设计需要考虑电机的散热方式、散热面积以及散热材料的导热性能等因素。合理的热设计可以确保电机在各种运行工况下都能保持稳定的性能。Thermaldesign:Themotorgeneratesalargeamountofheatduringoperation,andifitcannotdissipateintime,itcanleadtothermalfailureofthemotor.Therefore,thermaldesignisaveryimportantpartofthedesignofpermanentmagnetsynchronousmotors.Thermaldesignneedstoconsiderfactorssuchastheheatdissipationmethodofthemotor,theheatdissipationarea,andthethermalconductivityoftheheatdissipationmaterial.Reasonablethermaldesigncanensurethatthemotorcanmaintainstableperformanceundervariousoperatingconditions.永磁同步电机设计是一个复杂而精细的过程,需要综合考虑电机的尺寸、绕组、永磁体以及热设计等多个方面。通过合理的设计和优化,可以得到性能优良、高效稳定的永磁同步电机,为电动客车的发展提供强有力的技术支持。Thedesignofpermanentmagnetsynchronousmotorsisacomplexandmeticulousprocessthatrequirescomprehensiveconsiderationofmultipleaspectssuchasmotorsize,winding,permanentmagnet,andthermaldesign.Throughreasonabledesignandoptimization,high-performance,efficientandstablepermanentmagnetsynchronousmotorscanbeobtained,providingstrongtechnicalsupportforthedevelopmentofelectricbuses.四、永磁同步电机参数研究ResearchonParametersofPermanentMagnetSynchronousMotor永磁同步电机(PMSM)的设计参数对其性能具有决定性影响。在电动客车的应用中,对电机参数的优化选择尤为重要,因为这不仅关系到车辆的运行效率,还直接关系到乘客的舒适度和安全性。Thedesignparametersofpermanentmagnetsynchronousmotor(PMSM)haveadecisiveimpactonitsperformance.Intheapplicationofelectricbuses,theoptimizationofmotorparametersisparticularlyimportant,asitnotonlyaffectstheoperationalefficiencyofthevehicle,butalsodirectlyaffectsthecomfortandsafetyofpassengers.我们需要研究的是电机的极数和槽数组合。极数和槽数的选择直接影响到电机的转矩脉动和电磁噪声。通过改变极数和槽数的组合,我们可以找到最佳的平衡点,使得电机在提供足够转矩的同时,保持较低的转矩脉动和电磁噪声。Whatweneedtostudyisthecombinationofthenumberofpolesandslotsinthemotor.Theselectionofpoleandslotnumbersdirectlyaffectsthetorquerippleandelectromagneticnoiseofthemotor.Bychangingthecombinationofpoleandslotnumbers,wecanfindtheoptimalbalancepoint,allowingthemotortoprovidesufficienttorquewhilemaintaininglowtorquerippleandelectromagneticnoise.永磁体的形状和尺寸也是研究的重点。永磁体的形状和尺寸不仅决定了电机的气隙磁场分布,还直接影响了电机的转矩和效率。我们需要对永磁体的形状和尺寸进行优化设计,以得到最佳的磁场分布和电机性能。Theshapeandsizeofpermanentmagnetsarealsothefocusofresearch.Theshapeandsizeofpermanentmagnetsnotonlydeterminetheairgapmagneticfielddistributionofthemotor,butalsodirectlyaffectthetorqueandefficiencyofthemotor.Weneedtooptimizetheshapeandsizeofthepermanentmagnettoobtaintheoptimalmagneticfielddistributionandmotorperformance.绕组的设计也是参数研究中的重要部分。绕组的设计决定了电机的电感、电阻等电磁参数,进而影响到电机的动态性能和效率。我们需要通过优化绕组的设计,使得电机在各种运行状态下都能保持稳定的性能。Thedesignofwindingsisalsoanimportantpartofparameterresearch.Thedesignofthewindingdeterminestheelectromagneticparameterssuchasinductanceandresistanceofthemotor,whichinturnaffectsthedynamicperformanceandefficiencyofthemotor.Weneedtooptimizethedesignofthewindingtoensurestableperformanceofthemotorinvariousoperatingstates.冷却系统的设计也是参数研究中不可忽视的一部分。电动客车在运行过程中,电机会产生大量的热量,如果不能有效地进行散热,就会导致电机性能下降,甚至损坏。因此,我们需要设计合理的冷却系统,确保电机在各种运行状态下都能保持稳定的温度。Thedesignofcoolingsystemsisalsoanindispensablepartofparameterresearch.Duringtheoperationofelectricbuses,themotorgeneratesalargeamountofheat.Ifeffectiveheatdissipationisnotachieved,itcanleadtoadecreaseinmotorperformanceandevendamage.Therefore,weneedtodesignareasonablecoolingsystemtoensurethatthemotorcanmaintainastabletemperatureundervariousoperatingconditions.永磁同步电机的参数研究是一个复杂而重要的过程。我们需要通过理论分析和实验研究,不断优化电机的设计参数,以得到性能优异、运行稳定的电动客车用永磁同步电机。Theparameterresearchofpermanentmagnetsynchronousmotorsisacomplexandimportantprocess.Weneedtocontinuouslyoptimizethedesignparametersofthemotorthroughtheoreticalanalysisandexperimentalresearchtoobtainahigh-performanceandstablepermanentmagnetsynchronousmotorforelectricbuses.五、永磁同步电机优化设计Optimizationdesignofpermanentmagnetsynchronousmotor在电动客车的实际应用中,永磁同步电机(PMSM)的优化设计对于提高整车性能、降低能耗、提升运行效率以及增强可靠性具有至关重要的作用。因此,本节将深入探讨永磁同步电机的优化设计策略及其相关参数研究。Inthepracticalapplicationofelectricbuses,theoptimizationdesignofpermanentmagnetsynchronousmotors(PMSM)playsacrucialroleinimprovingvehicleperformance,reducingenergyconsumption,improvingoperationalefficiency,andenhancingreliability.Therefore,thissectionwilldelveintotheoptimizationdesignstrategyandrelatedparameterresearchofpermanentmagnetsynchronousmotors.永磁同步电机的优化设计目标主要包括最大化效率、最小化重量和体积、提高热性能以及增强电磁性能。这些目标的实现依赖于对电机设计的全面分析和综合优化。Theoptimizationdesigngoalsofpermanentmagnetsynchronousmotorsmainlyincludemaximizingefficiency,minimizingweightandvolume,improvingthermalperformance,andenhancingelectromagneticperformance.Theachievementofthesegoalsdependsonacomprehensiveanalysisandoptimizationofmotordesign.为了实现上述目标,我们采用了多种优化方法,包括参数优化、拓扑优化以及多目标优化算法。参数优化主要关注电机的基本参数,如绕组匝数、极槽配合、气隙大小等。拓扑优化则着眼于电机的整体结构,以寻求最佳的材料分布和冷却系统设计。多目标优化算法则综合考虑多个设计目标,通过优化算法寻找最佳的设计平衡点。Toachievetheabovegoals,wehaveadoptedvariousoptimizationmethods,includingparameteroptimization,topologyoptimization,andmulti-objectiveoptimizationalgorithms.Parameteroptimizationmainlyfocusesonthebasicparametersofthemotor,suchaswindingturns,poleslotmatching,airgapsize,etc.Topologyoptimizationfocusesontheoverallstructureofthemotortoseektheoptimalmaterialdistributionandcoolingsystemdesign.Themulti-objectiveoptimizationalgorithmcomprehensivelyconsidersmultipledesignobjectivesandusesoptimizationalgorithmstofindtheoptimaldesignbalancepoint.在参数研究方面,我们重点研究了永磁体材料、绕组设计和冷却系统对电机性能的影响。不同永磁体材料(如NdFeB、SmCo等)对电机的磁性能和温度性能有显著影响。绕组设计则直接关系到电机的电磁性能和效率。冷却系统的设计则对电机的热性能和可靠性具有决定性作用。Intermsofparameterresearch,wefocusedonstudyingtheeffectsofpermanentmagnetmaterials,windingdesign,andcoolingsystemsonmotorperformance.Differentpermanentmagnetmaterials(suchasNdFeB,SmCo,etc.)haveasignificantimpactonthemagneticandtemperatureperformanceofmotors.Thewindingdesignisdirectlyrelatedtotheelectromagneticperformanceandefficiencyofthemotor.Thedesignofthecoolingsystemplaysadecisiveroleinthethermalperformanceandreliabilityofthemotor.通过综合运用上述优化方法和参数研究,我们成功设计出了具有高性能、高效率、高可靠性的永磁同步电机。与传统设计相比,优化后的电机在重量和体积上有所减少,同时在热性能和电磁性能上有了显著提升。这些优化结果不仅提高了电动客车的整体性能,还为其在市场上的竞争力提供了有力支持。Throughthecomprehensiveapplicationoftheaboveoptimizationmethodsandparameterresearch,wehavesuccessfullydesignedapermanentmagnetsynchronousmotorwithhighperformance,highefficiency,andhighreliability.Comparedwithtraditionaldesign,theoptimizedmotorhasreducedweightandvolume,whilesignificantlyimprovingthermalandelectromagneticperformance.Theseoptimizationresultsnotonlyimprovetheoverallperformanceofelectricbuses,butalsoprovidestrongsupportfortheircompetitivenessinthemarket.通过深入研究永磁同步电机的优化设计策略及相关参数,我们取得了显著的成果。然而,随着电动客车市场的不断发展和技术的不断进步,对永磁同步电机的性能要求也在不断提高。因此,未来我们将继续深入研究电机的优化设计技术,以进一步提高其性能并满足市场需求。我们也期待与更多同行开展合作与交流,共同推动电动客车领域的技术进步与发展。Throughin-depthresearchontheoptimizationdesignstrategyandrelatedparametersofpermanentmagnetsynchronousmotors,wehaveachievedsignificantresults.However,withthecontinuousdevelopmentoftheelectricbusmarketandtechnologicalprogress,theperformancerequirementsforpermanentmagnetsynchronousmotorsarealsoconstantlyincreasing.Therefore,inthefuture,wewillcontinuetoconductin-depthresearchontheoptimizationdesigntechnologyofmotorstofurtherimprovetheirperformanceandmeetmarketdemand.Wealsolookforwardtocollaboratingandexchangingideaswithmorepeerstojointlypromotetechnologicalprogressanddevelopmentinthefieldofelectricbuses.六、实验验证与性能评估Experimentalverificationandperformanceevaluation为了验证永磁同步电机设计的合理性和参数的准确性,我们进行了实验验证与性能评估。实验主要包括电机的静态和动态性能测试,以及在实际电动客车环境中的运行测试。Inordertoverifytherationalityofthedesignofpermanentmagnetsynchronousmotorsandtheaccuracyofparameters,weconductedexperimentalverificationandperformanceevaluation.Theexperimentmainlyincludesstaticanddynamicperformancetestingofthemotor,aswellasoperationaltestinginactualelectricbusenvironments.在实验室环境下,我们对电机进行了静态性能测试,包括电阻、电感、反电动势等参数的测量。测试结果表明,电机的设计参数与实际测量结果相符,验证了电机设计的准确性。Inthelaboratoryenvironment,weconductedstaticperformancetestsonthemotor,includingmeasurementsofparameterssuchasresistance,inductance,andbackelectromotiveforce.Thetestresultsindicatethatthedesignparametersofthemotorareconsistentwiththeactualmeasurementresults,verifyingtheaccuracyofthemotordesign.为了评估电机的动态性能,我们进行了空载和负载下的转速和转矩测试。实验结果显示,电机在不同转速和负载下的性能表现稳定,且与设计预期相符。我们还对电机的效率和温升进行了测试,结果均满足设计要求。Toevaluatethedynamicperformanceofthemotor,weconductedspeedandtorquetestsunderno-loadandloadconditions.Theexperimentalresultsshowthattheperformanceofthemotorisstableatdifferentspeedsandloads,andisconsistentwiththedesignexpectations.Wealsotestedtheefficiencyandtemperatureriseofthemotor,andtheresultsmetthedesignrequirements.为了更全面地评估电机的性能,我们将电机安装在电动客车上进行了实际运行测试。测试过程中,电机在不同路况和速度下的性能表现均表现出良好的适应性和稳定性。我们还对电机的噪音和振动进行了测试,结果均符合相关标准。Inordertocomprehensivelyevaluatetheperformanceofthemotor,weinstalledthemotoronanelectricbusforactualoperationtesting.Duringthetestingprocess,theperformanceofthemotorshowedgoodadaptabilityandstabilityunderdifferentroadconditionsandspeeds.Wealsotestedthenoiseandvibrationofthemotor,andtheresultsmettherelevantstandards.通过静态性能测试、动态性能测试以及实际电动客车环境运行测试,验证了永磁同步电机设计的合理性和参数的准确性。实验结果表明,该电机具有良好的性能表现和适应性,能够满足电动客车的需求。Therationalityofpermanentmagnetsynchronousmotordesignandtheaccuracyofparameterswereverifiedthroughstaticperformancetesting,dynamicperformancetesting,andactualelectricvehicleenvironmentaloperationtesting.Theexperimentalresultsshowthatthemotorhasgoodperformanceandadaptability,andcanmeettheneedsofelectricbuses.七、结论与展望ConclusionandOutlook本研究对电动客车永磁同步电机的设计与参数进行了深入的探讨和研究。通过理论分析和实验验证,我们得到了一系列有关永磁同步电机设计的关键参数及其优化方案,为电动客车的高效、稳定运行提供了有力的技术支撑。Thisstudyconductedin-depthexplorationandresearchonthedesignandparametersofpermanentmagnetsynchronousmotorsforelectricbuses.Throughtheoreticalanalysisandexperimentalverification,wehaveobtainedaseriesofkeyparametersandoptimizationschemesrelatedtothedesignofpermanentmagnetsynchronousmotors,providingstrongtechnicalsupp

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