Modeling and Parametric Study of Torque in Open Clutch Plates

Author:

Aphale Chinar R.1,Cho Jinhyun1,Schultz William W.1,Ceccio Steven L.1,Yoshioka Takao2,Hiraki Henry2

Affiliation:

1. Department of Mechanical Engineering, University of Michigan, Ann Arbor, MI 48105

2. Dynax Corporation, Hokkaido, Japan

Abstract

The relative motion of the friction and separator plates in wet clutches during the disengaged mode causes viscous shear stresses in the fluid passing through the 100microns gap. This results in a drag torque on both the disks that wastes energy and decreases fuel economy. The objective of the study is to develop an accurate mathematical model for the above problem with verification using FLUENT and experiments. Initially we two consider flat disks. The mathematical model calculates the drag torque on the disks and the 2D axisymmetric solver verifies the solution. The surface pressure distribution on the plates is also verified. Then, 3D models of one grooved and one flat disk are tested using CFD, experiments and an approximate 3D mathematical model. The number of grooves, depth of groove and clearance between the disks are studied to understand their effect on the torque. The study determines the pressure field that eventually affects aeration incipience (not studied here). The results of the model, computations and experiments corroborate well in the single-phase regime.

Publisher

ASME International

Subject

Surfaces, Coatings and Films,Surfaces and Interfaces,Mechanical Engineering,Mechanics of Materials

Reference13 articles.

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