1.北京科技大学, 北京 100083
2.沃德传动(天津)股份有限公司, 天津 300409
朱孝录(1934- ),男,浙江义乌人,教授;主要研究方向为机械设计的理论和方法、机械失效分析与预防。
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朱孝录.硬齿面齿轮随机断裂的多种失效模式、原因和预防[J].机械传动,2022,46(06):84-94.
Zhu Xiaolu.Multiple Failure Modes,Causes and Prevention of Random Fracture for Hard Tooth Flank Gears[J].Journal of Mechanical Transmission,2022,46(06):84-94.
朱孝录.硬齿面齿轮随机断裂的多种失效模式、原因和预防[J].机械传动,2022,46(06):84-94. DOI: 10.16578/j.issn.1004.2539.2022.06.013.
Zhu Xiaolu.Multiple Failure Modes,Causes and Prevention of Random Fracture for Hard Tooth Flank Gears[J].Journal of Mechanical Transmission,2022,46(06):84-94. DOI: 10.16578/j.issn.1004.2539.2022.06.013.
综合论述了齿轮轮齿随机断裂(Random fracture)术语出现的历史沿革,以及轮齿随机断裂多种失效模式的形貌特征、失效实例、产生断裂的原因和预防措施等。当代机械工程对齿轮传动不但提出高速、重载和轻量化的要求,而且应用条件更趋苛刻,因此,轮齿随机断裂已经成为常见的失效形式。对于当今最常用的硬齿面齿轮,约有70%以上齿轮的最终弯曲失效是随机断裂。随机断裂有多种失效模式,文中论述的齿内疲劳断裂(Tooth interior fatigue fracture,TIFF)和齿侧断裂(Tooth flank fracture,TFF)都是典型的随机断裂。提出要面对轮齿随机断裂这一重要的客观存在,建议齿轮设计者、制造者和有关的专家、学者,很有必要对这一失效现象做进一步的研究和分析,以便优化设计和制造,尽可能避免轮齿发生随机断裂。
The history and evolution of the random fracture terms,the morphological features,failure examples,causes and preventive measures of various random fracture modes are comprehensively discussed. Contemporary mechanical engineering proposes high speed,heavy load and light weight requirements; what's more the application conditions are more stringent; thus,the gear tooth random fracture has become a common failure mode. For the most commonly used hard tooth flank gears today,the final bending failure of more than 70% of the gears is random fracture. There are multiple failure modes for random fractures. Both the TIFF(Tooth interior fatigue fracture) and TFF(Tooth flank fracture) discussed are typical random fractures. Facing the important objective existence of gear random fracture,it is suggested that designers,manufacturers and relevant experts and scholars of the gear should do further research and analysis of this failure phenomenon,so as to optimize the design and manufacturing,and avoid random gear fracture as much as possible.
硬齿面齿轮轮齿随机断裂失效模式
Hard tooth flanksGear teethRandom fractureFailure modes
Deutsches Institut fur Normung.Tooth damages on gears:designation characteristics,causes:DIN3979,1979[S].Berlin:DIN,1979.
American Gear Manufacturer's Association.Nomenclature of gear tooth failure modes:AGMA 110.04,1980[S].Alexandria:AGMA,1980.
机械工业部郑州机械研究所.齿轮轮齿损伤的术语、特征和原因:GB 3481—1983[S].北京:中国标准出版社,1983:15-16.
Zhengzhou Research Institute of Mechanical Engineering of Ministry of Machinery Industry.Nomenclature,characteristics,causes of gear tooth failure:GB 3481—1983[S].Beijing:China Standards Press,1983:15-16.
International Standardization Organization.Gears—wear and damage to gear teeth:ISO/DIS 10825,1995[S].Geneva:ISO,1995.
全国齿轮标准化技术委员会.齿轮轮齿磨损和损伤术语:GB/T 3481—1997[S].北京:中国标准出版社,1997.
National Technical Committee on Gear Standardization.Gear—wear and damage to gear teeth—terminology:GB/T 3481-1997[S].Beijing:China Standard Press,1997.
International Standardization Organization.Gears—wear and damage to gear teeth—terminology:ISO/DIS 10825-1:20××[S].Geneva:ISO,20××.
American Gear Manufacturers Association.Appearance of gear teeth-Terminology of wear and failure:ANSI/AGMA 1010-F14[S].Alexandria:AGMA,2014:34-37.
International Standardization Organization:Calculation of load capacity of spur and helical gears—part 4:calculation of tooth flank fracture load capacity:ISO/TS 6336-4:2019[S].Geneva:[s.n],2019.
朱孝录.齿轮发生随机断裂的原因和预防措施[J].金属加工(热加工),2020(2):2-4.
ZHU Xiaolu.Cause and preventive measures of random gear fracture[J].Metal Working (Hot Processing),2020(2):2-4.
朱孝禄,胡炜.机械传动装置基础件失效分析[M].北京:化学工业出社,2022:177,178,193,253
ZHU Xiaolu,HU Wei.Failure analysis of basic parts for mechanical transmission devices[M].Beijing:Chemical Industry Press,2022:177,178,193,253.
FUJITA K,AKAMATSU K.A study on strength and failure of Lnduction-hardened chromiun-molybdenum steel spur gears[J].Bulletin of the JSME,1979,22(164):242-248.
FUJITA K,YOSHIDA A.Effect of hardness on tooth strength and surface durability and on failure modes of gears[J].Bulletin of the JSME,1982,25(201):452-458.
YOSHIDA A,FUJITA K.Effect of case depth on fatigue strength of case-harden gear[J].Bulletin of the JSME,1986,29(247):228-234.
NETPU S,SRICHANDR P.Failure of a helical gear in a power plant[J].Engineering Failure Analysis,2013,32:81-90.
ASI O.Fatigue failure of a helical gear in a gearbox[J].Engineering Failure Analysis,2006,13:1116-1125.
SIDDIQUI N A,DEEN K M.Investigating the failure of bevel gears in an aircraft engine[J].Engineering Failure Analysis,2013,1:24-31.
毛振军.齿面非马氏体组织对齿轮损坏的影响[J].理化检验,1978(6):22-26.
MAO Zhenjun.Effect of tooth non-martenitic tissue on gear damage [J].Physical and Chemical Test,1978(6):22-26.
洛阳矿山机器厂.重载齿轮损伤与失效图谱[M].北京:中国科学技术出版社,1990:79-86.
Luoyang Mine Machinery Factory.Heavy-load gear damage and failure map[M].Beijing:China Science and Technology Publishing House,1990:79-86.
朱孝录,史铁军.齿轮轮齿的随机断裂现象[J].机械传动,1999,23(1):29-31.
ZHU Xiaolu,SHI Tiejun.Random fracture of gear teeth[J].Journal of Mechanical Transmission,1999,23(1):29-31.
边新孝,甘小青,朱孝录.齿轮随机断裂试验研究[J].机械传动.2003,27(4):23-25.
BIAN Xinxiao,GAN Xiaoqing,ZHU Xiaolu.Experimental study on random fracture of the gears[J].Mechanical Transmission,2003,27(4):23-25.
BIAN Xinxiao,LI Xiaole,ZHU Xiaolu.Study on random fracture and crack growth of gear tooth waist[J].Journal of Failure and Prevention,2018,18:121-129.
MACKAIDENER M.Tooth interior fatigue fracture & robustness of gears[D].Sweden:Royal Institute of Technology,2001:27-38.
MACKAIDENER M,OLSSON M.Interior fatigue fracture of gear teeth[J].Blackwell Science Ltd.Fatigue Fract Engng Mater Struct 2000,23:283-292.
MACKAIDENER M,OLSSON M.Design against tooth interior fatigue fracture[J].Gear Technology,2000(11/12):18-24.
MACKAIDENER M,OLSSON M.Tooth interior fatigue fracture computational and material aspects[J].International Journal of Fatigue,2001(23):329-340.
BOIADJIEV J, WITZIG T, TOBIE K, et a1. Tooth flank fracture basic principles and calculation model for a sub surface initiated fatigue failure mode of case hardened gears[C].München:[s.n],2014:670-680.
朱孝录,鄂中凯.齿轮承载能力分析[M].北京:高等教育出版社,1992:324-326.
ZHU Xiaolu,E Zhongkai.Gear load capacity analysis[M].Beijing:Higher Education Press,1992:324-326.
ERRICHELLO R L,HEWETTE C,ECKERT R.Point-surface-origin macropitting caused by geometric stress concentration[J].Gear Technology,2011(1/2):54-59.
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