A Control Technology of Grain Size in Novel Multi-Power Induction Heating Process Using the Cleaner Rheological Material

H.K. Jung; Chung Gil Kang; Byung Min Kim

doi:10.4028/www.scientific.net/KEM.274-276.541

Paper Titles

A Method to Analyse of Roll Bending Force Effect Rate in 4-High Hot Strip Mill
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Analysis on Influence of Technological Parameters on Temperature and Plastic Strain during Metal-Cutting
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Pass Reduction Effect on the Course of the Strain Condition, and the Behaviour of Surface Defects Concerning Drawing Processes
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Phase Transformation Die Casting Process for Manufacturing a Thin-Type Product and Its Mechanical Performance Assessment
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A Control Technology of Grain Size in Novel Multi-Power Induction Heating Process Using the Cleaner Rheological Material
p.541

Continuous Fabrication Process of Grain Controlled Aluminum Material for Rheology Forming and Its Microstructural Evaluation
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An Influence of Tool Profiles on the V-Bending Process of Sheet Metal
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Investigation of the Flange Earring of Deep-Drawing Aluminum Sheets by Rate-Independent Polycrystalline Plasticity Finite Element Analysis
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An Effect of Material Parameters on the Camber Behavior
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A Control Technology of Grain Size in Novel Multi-Power Induction Heating Process Using the Cleaner Rheological Material

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Key Engineering Materials (Volumes 274-276)

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541-546

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.274-276.541

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Online since:

October 2004

Authors:

H.K. Jung, Chung Gil Kang, Byung Min Kim

Keywords:

Cleaner Rheological Material, Control Technology of Grain Size, Globular Microstructure, Multi-Power Induction Heating, Power-Time Heating Pattern, Rapid Reheating

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References

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