使用 H2O 激进式低刀具磨损切削法

Hiromichi Toyota, Ryoya Shiraishi, Hidekazu Goto, Xia Zhu, Yukiharu Iwamoto, Syoma Tamura
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引用次数: 0

摘要

在切削不锈钢和镍合金等难切削材料时,刀具磨损是一个重要问题。这种难以消除的缺点是由于在切削过程中离解的碳原子扩散到刀尖表面层造成的,这一点已通过对磨损刀尖的 SEM/EDS 分析得到证实。本研究提出了一种新的切削方法,即在切削刀尖引入化学活化的 H2O 分子,通过清除刀尖表层的离解碳原子来防止刀具磨损。在切削实验中,使用了不锈钢 X5CrNi 18-10(JIS SUS304)、硬质合金刀尖、切削油、蒸汽和氩等离子体。氩等离子体用于提高刀尖周围的蒸汽温度,并对 H2O 分子进行化学活化。从结果来看,大多数情况下,在不使用氩等离子体的情况下,H2O 蒸汽和切削油可以去除解离的碳和构成的刀刃。然而,在使用氩等离子体的某些情况下,工件熔化并紧紧粘附在刀尖的切削面上。这表明,应适当控制 H2O 蒸汽的温度,以便有效去除刀尖切削面上的碳原子。
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Low Tool Wear Cutting Method Using H2O Radical
Tool wear is an important problem when cutting hard-to-cut materials such as stainless steel and nickel alloys. This unignorable disadvantage is caused by the diffusion of dissociated carbon atoms to the surface layer of the tool tip during the cutting process, and this has been confirmed by SEM/EDS analysis of worn tool tips. In this study, a novel cutting method is proposed in which chemically activated H2O molecules are introduced to the cutting tool tip in order to prevent tool wear by removing dissociated carbon atoms on the surface layer of the tool tip. In cutting experiments, stainless steel X5CrNi 18-10 (JIS SUS304), a cemented carbide tool tip, cutting oil, steam, and Ar plasma were used. Ar plasma was used for raising the steam temperature around the tool tip and chemically activating H2O molecules. From the results, the dissociated carbon and constituted knife edge were mostly removed by H2O steam and cutting oil without Ar plasma. However, in some cases using Ar plasma, the workpiece melted and tightly adhered to the cutting face of the tool tip. This suggests that the H2O steam temperature should be suitably controlled so as to remove carbon atoms effectively from the cutting face of the tool tip.
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