Finite Element Simulation about Abrasive Belt Grinding Silicon Carbide

Shi Jun Ji; Lei Lei Liu; Ji Zhao; Jin Chao Li

doi:10.4028/www.scientific.net/KEM.679.27

Paper Titles

The Kinematics Research of Elliptical Vibration Polishing Based on the Vibration Parameter Optimization
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Design of the Micro-V-Groove Ultra-Precision CNC Electric Transmission Communication System
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Modeling and Compensation of the Thermal Error on Feed Drive System of CNC Grinding Machine
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Solution Concentration Affected Wavy Fibers Fabrication via Auxiliary Electrodes in Near-Field Electrospinning
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Finite Element Simulation about Abrasive Belt Grinding Silicon Carbide
p.27

Modeling of the Positioning Error in Ultra-Precision Machine Tools
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Development of CNC System Software for Micro V-Groove Machine Tool
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Dynamic Conveyor Tracking Control of a Delta Robot
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From Shape to Feature - A Novel Structural Design Idea for Dynamic Feature Adjustable Micro Motion Stages Based on Tension Stiffening
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HomeKey Engineering MaterialsKey Engineering Materials Vol. 679Finite Element Simulation about Abrasive Belt...

Finite Element Simulation about Abrasive Belt Grinding Silicon Carbide

Abstract:

Silicon carbide, a high-strength material, has a ductile-brittle transition mechanism. In order to establish a reasonable silicon carbide abrasive belt grinding parameters to obtain high precision silicon carbide free-surface efficiently, a series of finite element simulations were conducted to comprehend the single point diamond grinding of silicon carbide using professional analysis software of nonlinear finite element in this paper. According to the differences of cutting parameter, such as cutting depth, cutting deformation of the chip and the maximum cutting force were studied. For the free-form surface with higher accuracy, the data showed that ductile machining of silicon carbide is more efficient along with the larger rake angle, the higher cutting speed and the smaller cutting depth.

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Periodical:

Key Engineering Materials (Volume 679)

Pages:

27-32

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.679.27

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Online since:

February 2016

Authors:

Shi Jun Ji, Lei Lei Liu, Ji Zhao*, Jin Chao Li

Keywords:

Computer Simulation, Ductile-Brittle Transition, Finite Element Analysis, Silicon Carbide (SiC)

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* - Corresponding Author

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