Essential Research in Machining Difficult-to-Machine Materials for Advancing MQL Cutting Technology with a Newly Developed Coated Tool

Syunki Shimada; Masao Kohzaki

doi:10.4028/www.scientific.net/AMR.1017.329

Paper Titles

Study of Grinding Wheel for Polishing Diamond by Dynamic Friction Polishing
p.304

Influence of Tool Shape and Coating Type on Machined Surface Quality in Face Milling of CFRP
p.310

Machining of Sintered Tungsten Carbide for Die and Mold
p.319

Laboratory Comparison of SMART*CUT Picks With WC Picks
p.323

Essential Research in Machining Difficult-to-Machine Materials for Advancing MQL Cutting Technology with a Newly Developed Coated Tool
p.329

Experimental Verification of End-Milling Condition Decision Support System Using Data-Mining for Difficult-to-Cut Materials
p.334

High Speed Machining Method of Large-Size Precision Freeform Mirror
p.340

A Study on Straightness of Deep Hole in Small-Diameter Drilling of Stainless Steel
p.344

Development of Axially Splitting Method for the Pipe Materials with the Cutting Tool
p.350

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 1017Essential Research in Machining...

Essential Research in Machining Difficult-to-Machine Materials for Advancing MQL Cutting Technology with a Newly Developed Coated Tool

Abstract:

This study is developing environmentally friendly cutting technologies of difficult-to-machine materials by MQL (Minimum Quantity Lubrication) cutting with Ti-B coated tools. In this research, we performed cutting experiments of difficult-to-machine materials in dry, MQL and wet conditions with non-coated tools. Cutting resistance in the MQL cutting was almost the same as that in the wet cutting. Moreover, damage of the cutting tool was not observed after the MQL cutting. Therefore the MQL cutting is expected to become an advanced cutting technology by using Ti-B coated tools because Ti-B film had high temperature lubricating properties and high wear resistance.