Research on Plasma Spray Particle Impact Matrix Process Simulation

Chang Sheng Liu; Hao Ping Zeng

doi:10.4028/www.scientific.net/AMR.658.194

Paper Titles

Performance of Granular Media from Blast Furnace Slag on Beer Wastewater Treatment
p.174

Optimization on Parameters of Resistance Spot Welding Process for Galvanized Steel Plate
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Study on Nonlinear Cutting Forces Phenomenon of Difficult-to-Machining Materials
p.182

Residual Stress Profile of Ultra High Strength Low Alloy Steel Induced by High Speed Milling Process
p.188

Research on Plasma Spray Particle Impact Matrix Process Simulation
p.194

A Study of the Effect of Mineral Particle Shapes on Breakage Rate in Ball Mill Using DEM
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Tensile Strength of Cu Sheets Welded by Ultrasonic Metal Welding
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Experiment on the Fabrication of the Ni-Fe Micro Structure
p.209

Experiment on Electroforming Ni-Fe Property for Micro Fabrication
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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 658Research on Plasma Spray Particle Impact Matrix...

Research on Plasma Spray Particle Impact Matrix Process Simulation

Abstract:

Plasma spraying rapid making of functionally graded mold is an effective preparation method. In this paper, finite element method simulation of the plasma spray process a single droplet deformation and matrix effects in the process. Studies have shown that: speed large solidification time is short, more conducive to the formation of the coating; speed large residual thermal stress is small; preheat temperatures are high, the particle flattening effect, The research results will provide theoretic basis for improving spraying coating quality.

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Periodical:

Advanced Materials Research (Volume 658)

Pages:

194-197

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.658.194

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Online since:

January 2013

Authors:

Chang Sheng Liu, Hao Ping Zeng

Keywords:

Finite Element, Functionally Graded Mold, Spray Layer

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