Document Type : Research Article

Authors

Abstract

In this work, a numerical methodology is implemented applying the computational finite element method for a pair pinion-crown of bevel gears in spiral of the differential system of a compact Sport Utility Vehicle (SUV), with the objective of establishing a criterion of the results to characterize the failure of the gear pair during its operation. To do this, from a CAD model obtained by 3D scanning, the numerical results of the structural case are compared by correlating the transient, fatigue, modal and harmonic studies between a pair of gears without damage and another pair with a damaged (chipped) tooth on the pinion. It is observed that from the harmonic response of stress and vibration, a criterion can be established to differentiate the new pair of gears from the damaged pair, the latter presenting a frequency response pattern with high values with respect to the first. The above may be a reference option for detecting the failure of spiral bevel gear pairs used in automobile differential system.

Graphical Abstract

Design and Numerical Simulation using Vibration Analysis for the Detection and Reduction of Failures of the Gear Pair of the Differential System of a Powertrain

Keywords

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