The Effect of a Rotating Heat Pipe in a Brazed Diamond Grinding Wheel on Grinding Temperature

Ke Ma; Hong Jun Xu; Yu Can Fu

doi:10.4028/www.scientific.net/KEM.416.274

Paper Titles

Finite Element Prediction of Grind-Hardening Layer Thickness
p.253

Modeling and Studying of Grinding Process Based on Autocad
p.259

Effect of Ti Addition on Shear Strength of Brazing Diamond and Ag Based Filler Alloy
p.264

Grinding Force and Surface Integrity on Dry Belt Grinding of TA15 Titanium Alloys
p.269

The Effect of a Rotating Heat Pipe in a Brazed Diamond Grinding Wheel on Grinding Temperature
p.274

Porous Metal Bond Matrix with High Porosity and Large Pore Size Fabricated Using Pore-Forming Agent
p.279

Effect of Ultrasonic on Grain Density of Electroplated Diamond Tools
p.284

Study on Compliant Control by Cutter Radius Compensating for Rotating Curved Surfaces Polishing on NC Lathes
p.289

Motion Analysis of Ball Grinder with Dual-Rotating Plates Lapping Mode
p.295

HomeKey Engineering MaterialsKey Engineering Materials Vol. 416The Effect of a Rotating Heat Pipe in a Brazed...

The Effect of a Rotating Heat Pipe in a Brazed Diamond Grinding Wheel on Grinding Temperature

Abstract:

A new type of brazed diamond grinding wheel with a rotating heat pipe is developed to effectively remove the heat generated in the grinding zone meanwhile minimize the pollution and contamination of the environment. A grinding temperature-measurement experiment of titanium alloy was conducted to evaluate enhanced heat transfer effect of the rotating heat pipe on the grinding zone. The experiment results show that, when grinding using the wheel with heat pipe the grinding temperature decreases 30% than that using the wheel without heat pipe.

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Periodical:

Key Engineering Materials (Volume 416)

Pages:

274-278

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.416.274

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Online since:

September 2009

Authors:

Ke Ma, Hong Jun Xu, Yu Can Fu

Keywords:

Enhanced Heat Transfer, Ground Temperature, Heat Pipe, TiAl

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