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contributor authorSui, Menghua
contributor authorLi, Changhe
contributor authorWu, Wentao
contributor authorYang, Min
contributor authorAli, Hafiz Muhammad
contributor authorZhang, Yanbin
contributor authorJia, Dongzhou
contributor authorHou, Yali
contributor authorLi, Runze
contributor authorCao, Huajun
date accessioned2022-02-05T22:05:34Z
date available2022-02-05T22:05:34Z
date copyright3/8/2021 12:00:00 AM
date issued2021
identifier issn1948-5085
identifier othertsea_13_5_051001.pdf
identifier urihttp://yetl.yabesh.ir/yetl1/handle/yetl/4276892
description abstractNanofluid minimum quantity lubrication (NMQL) has better stability, higher thermal conductivity, and excellent lubrication performance compared with traditional flood lubrication. The heat transfer model and finite difference model were established to verify the feasibility of NMQL conditions in grinding cemented carbide. Based on them, the grinding temperature of cemented carbide is calculated numerically. Results show that the grinding zone temperatures of flood grinding and NMQL are lower, 85.9 °C and 143.2 °C, respectively. Surface grinding experiments of cemented carbide YG8 under different working conditions are carried out. Dry grinding (227.2 °C) is used as the control group. Grinding zone temperatures of flood grinding, minimum quantity lubrication, and NMQL decrease by 64.2%, 39.5%, and 20.4%, respectively. The error is 6.3% between theoretical calculation temperature and experimental measurement temperature. Based on machining process parameters (specific grinding force, force ratio) and experimental results (microstructure of grinding wheel, workpiece, and grinding debris), the effects of different working conditions on wheel wear are studied. NMQL achieves the highest G ratio of 6.45, the smallest specific grinding force, and the smallest Fn/Ft ratio of 2.84, which further proves that NMQL is suitable for grinding cemented carbide.
publisherThe American Society of Mechanical Engineers (ASME)
titleTemperature of Grinding Carbide With Castor Oil-Based MoS2 Nanofluid Minimum Quantity Lubrication
typeJournal Paper
journal volume13
journal issue5
journal titleJournal of Thermal Science and Engineering Applications
identifier doi10.1115/1.4049982
journal fristpage051001-1
journal lastpage051001-14
page14
treeJournal of Thermal Science and Engineering Applications:;2021:;volume( 013 ):;issue: 005
contenttypeFulltext


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