简介:Developmentofanaluminumtorquerodforheavy-dutytrucksuspension;DevelopmentofDissolutionMethodandUnitOperationUsingVegetableOilforPlasticRecycling;Developmentofferriticstainlesssteelsheetswithexcellentdeepdrawabilityby(111}recrystallizationtexturecontrol;DevelopmentofhighmagneticperformanceP/Msoftmagneticmaterial;Developmentofhigh-strengthmagnesiumalloywire;DevelopmentofLead-freeFree-cuttingSteel;……
简介:Anewflowdiagrammingschemeformappingandanalysisofmulti-productflowsinafacility;Anewgeneticalgorithmforthemachine/partgroupingprobleminvolvingprocessingtimesandlotsizes;Acousticemissionduringquenchingof42CrMo4steel;Anothersimilaritycoefficientforthep-medianmodelingrouptechnology;Investigationofabnormalwearofmassivemachinepart-welded-technicalchromiumlayersystem……
简介:[篇名]Alowcostroboticsmachinetendingsystem,[篇名]Anovel,newdirectinjectiontechnologyforin-linecompoundingandmoldingofLFTautomotivestructures,[篇名]Aproposalofhigherprecisionandreducingpressworkingloadinformingofhigh-tensilesteelsheetsforautomobiles,[篇名]AdvancedPlasmaNitridingforAluminumandAluminumAlloys,[篇名]Aluminumalloysheetsforautomotiveparts,[篇名]Anadvancedcastingtechnologyforrecyclingofthehigh-tensilesteelsheetpressedge,[篇名]AnalysisofBendingDeformationBehaviorduringLaserWeldinginCylindricalParts,[篇名]AnalysisofBendingDeformationBehaviorinCylindricalPartsbyCircumferentialWelding-StudyofDeformationBehaviorbyLaserWeldinginMicronorSub-MicronLevelinAutomobileParts(Report1),[篇名]ANALYSISOFDEFORMATIONBEHAVIOROFPIPEUNDERLASERWELDING,[篇名]Analysisofpolyurethanefoamingflow-Part1:applicationoffoamingdensityformulato3-Dflowanalysis,[篇名]Applicationofhydroformingsimulationondevelopmentofautomobileparts,[篇名]Applicationofintensivequenchingtechnologyforsteelparts,[篇名]Applicationofnyloncompositerecycletechnologyforautomotiveapplications,[篇名]Applicationofnyloncompositerecycletechnologytoautomotiveparts,[篇名]Applicationoftitaniumalloysforincreasingautomobileperformance。
简介:Applicationoftubehydroformingtoautomotiveparts,AppliedinvestigationofBio-Plastics,Automotiveapplicationsofmagnesiumalloys,AZ80andZC71/SiC/12pcloseddieforgingsforautomotiveapplications:technicalandeconomicassessmentofpossiblemassproduction,Burnishingversusgrindingforautomotiveparts,CAD-GuidedSensorPlanningforDimensionalInspectioninAutomotiveManufacturing。
简介:一、为什么要使用四轮定位专用调整角度零件?大家知道,车辆在出厂时其悬挂系统的定位角度(基本定位角度有7个)都是根据设计要求预先设定好的.这些定位角度共同用来保证车辆驾驶的舒适性和安全性.但是,由于车辆在售出并行驶一段时间后,这些定位角度会由于交通事故、道路坑洼不平造成的剧烈颠簸(特别是高速行驶时突然遇到不平路面)、底盘零件磨损、更换底盘零件、更换轮胎等原因而产生变化.一旦定位角度由任何一种原因产生变化,就可能产生诸如轮胎异常磨损、车辆跑偏、安全性下降、油耗增多、零件磨损加快、方向盘发沉、车辆发飘等不适症状.有些症状使车辆在高速行驶时非常危险.
简介:轴承是机械设备中应用最广泛的零件之一,其型号有十几万种,结构尺寸和服役条件既有相似之处,也有诸多不同。而制造轴承零件的材料也有数百种,其性能和适用范围也各有不同。同时,材料的强化工艺达上百种,每种工艺都有其优缺点和较佳的应用范围。材料及其强化工艺是影响轴承各项性能的重要因素,也是影响轴承制造成本的重要因素,选择材料是轴承设计制造的重要环节之一,合理地选择材料及其强化工艺可以使轴承获得良好的性能价格比,具有极大的经济效益和社会效益。要合理地选择材料,必须考虑轴承的服役条件和失效形式、轴承零件的结构和尺寸、材料的性能、价格及强化工艺、制造单位的加工条件和加工成本等多方面因素,具有较大的难度,本文对此进行初步探讨。