Simulation of Microstructure Evolution Coupled with Fabrication Pressure for Two-Phase Ceramic Tool Materials

Chuan Zhen Huang; Bin Fang; Chong Hai Xu; Sheng Sun; Han Lian Liu

doi:10.4028/www.scientific.net/KEM.431-432.138

Paper Titles

Evaluation of Heuristics for a Resource-Constrained Project Scheduling Problem
p.122

Research on the Influence of Cutting Fluids on the Critical Depth of Cut in Diamond Cutting of Optical Glass BK7
p.126

A Study on Critical Heat Flux in Grind-Hardening
p.130

Simulation of Microstructure Evolution Coupled with Fabrication Temperature for Two-Phase Ceramic Tool Materials
p.134

Simulation of Microstructure Evolution Coupled with Fabrication Pressure for Two-Phase Ceramic Tool Materials
p.138

FEM-Based Dynamic Performances of HSK Spindle/Toolholder Interface
p.142

Research on Simulating and Modeling Method for Spiral Bevel Gears with Actively Controllable Contact Patterns
p.146

Diamond Tool Wear Mechanism in Ultra-Precision Turning of SiC_p/Al Composites
p.150

Quasicontinuum Simulation of Effect of Crystal Orientation and Cutting Direction of on Nanometric Cutting of Single Crystal Copper
p.154

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Simulation of Microstructure Evolution Coupled with Fabrication Pressure for Two-Phase Ceramic Tool Materials

Abstract:

A computer simulation coupled with fabrication pressure for the sintering process of two-phase ceramic tool materials has been developed using a two-dimensional hexagon lattice model mapped from the realistic microstructure. The mean grain size of simulated microstructures by Monte Carlo Potts model integrated with pressure increases with an increase in fabrication pressure, which is consistent with the experiment results. Monte Carlo Potts model coupled with fabrication pressure is suitable for simulating the microstructure evolution at the different fabrication pressure during the fabrication of ceramic tool materials.