Attempt of Electrodischarge Grinding with an Electrically Conductive Diamond-Cutting-Edge Wheel |
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| Journal | Key Engineering Materials (Volumes 291 - 292) |
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| Volume | Advances in Abrasive Technology VIII |
| Edited by | Yury M. Baron, Jun'ichi Tamaki and Tsunemoto Kuriyagawa |
| Pages | 63-66 |
| DOI | 10.4028/www.scientific.net/KEM.291-292.63 |
| Citation | Kiyoshi Suzuki et al., 2005, Key Engineering Materials, 291-292, 63 |
| Online since | August, 2005 |
| Authors | Kiyoshi Suzuki, Shinichi Ninomiya, Manabu Iwai, Y. Tanaka, Yoshihiko Murakami, Sadao Sano, Katsutoshi Tanaka, Tetsutaro Uematsu |
| Keywords | Electric Discharge Machining (EDM), Electrically Conductive Diamond Cutting Edge, Electrodischarge Grinding, Tungsten Carbide Material |
| Abstract | Electro-discharge grinding (hereafter called ED-grinding) was carried out with a trial manufactured metal bond diamond wheel containing electrically conductive diamond grits (hereafter called EC-D-grits-wheel). In this research two effects i.e. removal action of workpiece by electrical discharge machining, and an in-process dressing action of the cutting edges on the grits are expected to take place. The results of ED-grinding with EC-D-grits-wheel (f100mm, SDE120Q80M) on tungsten carbide indicated a significant decrease of 21% in the grinding force, when the set discharge current was increased from 0A to 12A. It was also clarified from the alternative-grinding test with and without an electro-discharge action that stable grinding characteristics along with a reduced grinding force could be achieved in the case of the EC-D-grits-wheel with the electro-discharge action. High-speed camera photographs indicated that a stable discharge condition was achieved. |
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