Tool texturing for micro-turning applications - an approach using mechanical micro indentation

Cutting tool texturing is considered beneficial during the machining process because it could act as lubricant reservoirs to supply extra lubricant and help to entrap the wear debris, which results in the reduction of friction and tool wear. However, due to the exorbitant cost associated with laser-...

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Veröffentlicht in:Materials and manufacturing processes 2021-01, Vol.36 (1), p.84-93
Hauptverfasser: Elias, Jiju V., Venkatesh N., Prasanna, Lawrence K., Deepak, Mathew, Jose
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container_end_page 93
container_issue 1
container_start_page 84
container_title Materials and manufacturing processes
container_volume 36
creator Elias, Jiju V.
Venkatesh N., Prasanna
Lawrence K., Deepak
Mathew, Jose
description Cutting tool texturing is considered beneficial during the machining process because it could act as lubricant reservoirs to supply extra lubricant and help to entrap the wear debris, which results in the reduction of friction and tool wear. However, due to the exorbitant cost associated with laser-based tool texturing and difficulty in generating precise texture geometry in micro-inserts using alternate methods, the application of tool texturing in micromachining has not gained much popularity. This paper proposes a methodology utilizing mechanical micro indentations for generating microtextures on the flank face of the micro-turning inserts. Square pyramid-shaped micro indentations are made on the flank face of coated tungsten carbide inserts using Vickers microhardness tester. The proposed method eliminates the issue of coating delamination observed in other tool texturing approaches. Micro-turning experiments under Minimum Quantity Lubrication (MQL) conditions are performed on Ti-6Al-4V alloy, and the machining performances are analyzed to evaluate the effectiveness of the proposed methodology. Mechanical micro indentation textured inserts showed a reduction of 21% in cutting forces, 6% in surface roughness, 7% in cutting temperature and 19% in tool flank wear compared to non-textured inserts. The proposed method is observed to be promising, and the process improvement is found to be comparable with alternate approaches of tool texturing reported in the literature.
doi_str_mv 10.1080/10426914.2020.1813899
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However, due to the exorbitant cost associated with laser-based tool texturing and difficulty in generating precise texture geometry in micro-inserts using alternate methods, the application of tool texturing in micromachining has not gained much popularity. This paper proposes a methodology utilizing mechanical micro indentations for generating microtextures on the flank face of the micro-turning inserts. Square pyramid-shaped micro indentations are made on the flank face of coated tungsten carbide inserts using Vickers microhardness tester. The proposed method eliminates the issue of coating delamination observed in other tool texturing approaches. Micro-turning experiments under Minimum Quantity Lubrication (MQL) conditions are performed on Ti-6Al-4V alloy, and the machining performances are analyzed to evaluate the effectiveness of the proposed methodology. Mechanical micro indentation textured inserts showed a reduction of 21% in cutting forces, 6% in surface roughness, 7% in cutting temperature and 19% in tool flank wear compared to non-textured inserts. 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subjects cutting forces
mechanical micro indentation
micro-turning
Micromachining
minimum quantity lubrication
titanium alloy
tool texturing
tool wear
title Tool texturing for micro-turning applications - an approach using mechanical micro indentation
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