Effect of Abrasive Tooling Geometry on Surface Roughness Descriptors
Abrasive processes are some of the most important operations employed in manufacturing to remove unwanted material and introduce desired geometry and surface finish. However, some of the difficulties encountered when trying to model abrasive process are related to a multi-point contact tooling composed of extremely hard and brittle particles which geometry, shape and distribution are unknown. With the introduction of Engineered abrasives to the market over the past few years, the opportunity to drastically improve the quality and consistency of abrasive machining now exists. One of the main benefits of Engineered abrasives is the ability to control the abrasive grit properties i.e. size, shape, distribution and composition. The objective of this study was to develop a parametric model of the Engineered abrasives that allows for studying the interaction of this particular tooling with various surfaces. This would also allow for prediction of surface roughness from a given tool-workpiece pair. The development of this model, the analysis of the tool-workpiece interaction, and the algorithms for surface generations were carried out using a computer model developed for this specific purpose. Additionally, experimental validation of this model was conducted. Expected contributions of this project include suggestions for tooling geometry with respect to surface finish.
Proceedings of the Industrial Engineering Research Conference, IERC 2003
Carrano, Andres L. and Kataria, Hitesh, "Effect of Abrasive Tooling Geometry on Surface Roughness Descriptors" (2003). Engineering Faculty Publications. 243.
Carrano, A.L. Effect of abrasive tooling geometry on roughness descriptors. Industrial Engineering Research Conference, IERC2003. May 18-21, 2003. Portland, Oregon.