Stress Analysis of Spider Gear Using Structural Steel on ANSYS
Differential is an integral part of four wheeled vehicle, and its main function is to transmit power from drive shaft to wheels. Differential assembly allows both rear wheels to turn at different speed along curved paths. It consists of four gears which are assembled together namely pinion, ring, spider and bevel gears. This research focused on the spider gear and its static structural analysis using ANSYS. The main aim was to evaluate the distribution of stresses on the teeth of the spider gear. This study also analyzed total deformation that may occur during its working along with bevel gear that is meshed with spider gear. Structural steel was chosen for spider gear in this research. Modeling and assembling were done on SolidWorks for both spider and bevel gear. They were assembled exactly same as in a differential assembly. This assembly was then imported to ANSYS. After observing results that maximum amount of stress and deformation was produced in the spider gear, it was concluded that structural steel material for spider gear possesses greater amount of strength to bear maximum stress.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1474644Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 491
 Keller, A. V., A. A. Shelepov, and D. I. Istomin. "Study on Screw-ball Differential Gear Operating Process." Procedia engineering 129 (2015): pp. 535-541.
 Keller, A. V., A. A. Shelepov, and D. I. Istomin."Estimation of Screw-ball Differential on Vehicle Dynamics." Procedia Engineering 150 (2016): pp.1131-1136.
 Zhou, Changjiang, et al. "Analytical solution to bending and contact strength of spiral bevel gears in consideration of friction." International Journal of Mechanical Sciences 128 (2017): pp. 475-485.
 Su, Jinzhan, Zongde Fang, and Xiangwei Cai. "Design and analysis of spiral bevel gears with seventh-order function of transmission error." Chinese Journal of Aeronautics 26.5 (2013): pp. 1310-1316.
 Paulins, Karlis, Arturs Irbe, and Toms Torims. "Spiral Bevel Gears with Optimised Tooth-End Geometry." Procedia Engineering 69 (2014): pp. 383-392.
 Wu, Hongxing, et al. "Modification of spider gear back to uniform the stress and improve the anti-wear performance of a real thrust washer." Engineering Failure Analysis 60 (2016): pp. 107-116.
 Bayrakceken, H. "Failure analysis of an automobile differential pinion shaft." Engineering Failure Analysis 13.8 (2006): pp. 1422-1428.
 Sekercioglu, Tezcan, and Volkan Kovan."Pitting failure of truck spiral bevel gear." Engineering Failure Analysis 14.4 (2007): pp. 614-619.
 Pavan, A. H. V., et al. "Root cause analysis of bowl-mill pinion shaft failures." Case Studies in Engineering Failure Analysis1.2 (2013): pp. 103-109.
 Forstinger, Martin, Robert Bauer, and Anton Hofer. Modelling and Simulation of Passive Limited-slip Differentials." IFAC-Papers On Line 48.1 (2015): pp. 502-507.
 Kostrzewski, Mariusz, and Rafał Melnik. "Numerical dynamics study of a rail vehicle with differential gears." Procedia engineering 192 (2017): pp. 439-444.
 Khan, Amir, and Sankalp Verma. "Design and Analysis of Automobile Central Differential Having Two Different Side Gear."International Journal of Scientific Research & Development (2015), Vol 3, Issue 4.
 Veeranjaneyulu, C., and U. HariBabu. "Design And Structural Analysis of Differential Gear Box at Different Loads." International Journal of Advanced Engineering Research and Studies 1 (2012): 65-69.
 Patil, Shrenik M., and S. M. Pise. "Modal and Stress Analysis of Differential Gearbox Casing with Optimization." International Journal of Engineering Research and Applications 3 (2013): 188-193.