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Design of face-hobbed spiral bevel gears with reduced maximum tooth contact pressure and transmission errors 被引量:10

Design of face-hobbed spiral bevel gears with reduced maximum tooth contact pressure and transmission errors
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摘要 The aim of this study is to define optimal tooth modifications, introduced by appropriately chosen head-cutter geometry and machine tool setting, to simultaneously minimize tooth contact pressure and angular displacement error of the driven gear (transmission error) of face-hobbed spiral bevel gears. As a result of these modifications, the gear pair becomes mismatched, and a point contact replaces the theoretical line contact. In the applied loaded tooth contact analysis it is assumed that the point contact under load is spreading over a surface along the whole or part of the ‘‘potential’’ contact line. A computer program was developed to implement the formulation provided above. By using this program the influence of tooth modifications introduced by the variation in machine tool settings and in head cutter data on load and pressure distributions, transmission errors, and fillet stresses is investigated and discussed. The correlation between the ease-off obtained by pinion tooth modifications and the corresponding tooth contact pressure distribution is investigated and the obtained results are presented. The aim of this study is to define optimal tooth modifications, introduced by appropriately chosen head-cutter geometry and machine tool setting, to simultaneously minimize tooth contact pressure and angular displacement error of the driven gear (transmission error) of face-hobbed spiral bevel gears. As a result of these modifications, the gear pair becomes mismatched, and a point contact replaces the theoretical line contact. In the applied loaded tooth contact analysis it is assumed that the point contact under load is spreading over a surface along the whole or part of the ‘‘potential’’ contact line. A computer program was developed to implement the formulation provided above. By using this program the influence of tooth modifications introduced by the variation in machine tool settings and in head cutter data on load and pressure distributions, transmission errors, and fillet stresses is investigated and discussed. The correlation between the ease-off obtained by pinion tooth modifications and the corresponding tooth contact pressure distribution is investigated and the obtained results are presented.
作者 Vilmos Simon
出处 《Chinese Journal of Aeronautics》 SCIE EI CAS CSCD 2013年第3期777-790,共14页 中国航空学报(英文版)
基金 the Hungarian Scientific Research Fund (OTKA) for their financial support of the research under Contract No.K77921
关键词 Ease-off Face-hobbed spiral bevel gears Load distribution Transmission errors Gear teeth Ease-off Face-hobbed spiral bevel gears Load distribution Transmission errors Gear teeth
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参考文献42

  • 1Litvin FL.Theory ofgear mesh.Budapest: Muszaki Konyvkiado; 1972 [Hungarian].
  • 2Litvin FL, Chang WS, Lundy M, Tsung WJ.Design of pitch cones for face-hobbed hypoid gears.ASME J Mech Des 1990;112:413-8.
  • 3Kawasaki K, Tamura H, Nakano Y.A method for inspection of spiral bevel gears in Klingelnberg cyclo-palloid system.In: Proceedings of the international gearing conference, Newcastle upon Tyne; 1994.p.305-10.
  • 4Kawasaki K, Tamura H, Iwamoto Y.Klingelnberg spiral bevel gears with small spiral angles.In: Proceedings oj the 4th world congress on gearing and power transmissions, Paris; 1999.p.697- 703.
  • 5Kawasaki K.Manufacturing Method for large-sized bevel gears in cylo-palloid system using multi-axis control and multi-tasking machine tool.In: Proceedings of international conference 011 gears, Munich: VDI-Berichte 2108.1; 2010.p.337--48.
  • 6Kato S, Kubo A.Analysis of the effect of cutting dimensions on the performance of hypoid gears manufactured by the hobbing process.In: Proceedings ofqth world congress 011 gearing and power transmissions, Paris; 1999.p.585-94.
  • 7Kato S, Ikebe H, Hiramatsu J.Study on the tooth surface modification of hypoid gear in face hob system.In: Proceedings oj JSME international conference on motion and power transmissions, Sendai; 2009.p.109-11.
  • 8Stadtfeld HJ.The basics of gleasonface hobbing, Gleason Works; 2000, p.1-26.
  • 9Lelkes M, Marialigeti J, Play D.Numerical determination of cutting parameters for the control of Klingelnberg spiral bevel gear geometry.ASME J Mech Des 2002;124:761-71.
  • 10Fan Q.Computerized modeling and simulation of spiral bevel and hypoid gears manufactured by gleason face hobbing process.ASME J Mech Des 2006;128:1315-27.

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  • 2张金良,李少华,方宗德,邓效忠.准双曲面齿轮的齿面优化设计[J].机械科学与技术,2007,26(3):366-368. 被引量:6
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  • 4Claudiu-Ioan Boant~t, Vasile Bolos. The mathematical model of gen- erating kinematic for the worm face gear with modified geometry [ J ]. Procedia Technology ,2014,12 : 442 - 447.
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  • 6Poursaeidi E, Salavatian M. Failure analysis of generator rotor fan blades[ J ]. Engineering Failure Analysis, 2007, lg ( 5 ) : 851 - 860.
  • 7Ciavarella M, Demelio G. Numerieal methods for optimization of speeifie sliding, stress eoneentration and fatigue life of gears [ J ]. International Journal of Fatigue, 1999,21 ( 5 ) : 465 - 474.
  • 8Kramberger J, raml M, Glode S, et al. Computational model for the analysis of bending fatigue in gears [ J ]. Computers and Struc- tures,2004,82(23 -26) : 2261 -2269.
  • 9Litvin F L,Fuentes A. Gear geometry and applied theory (second edition) [M]. New York:Cambridge University Press, 2004.
  • 10Simon V. Optimal modifications of gear tooth surfaces [J]. Gear Technology, 2011 (3/4) : 62-72.

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