用纳米切削液和 MQL 提高 6061 铝合金的铣削性能

IF 1.2 4区 材料科学 Q4 CHEMISTRY, PHYSICAL
NIHAT TOSUN, SLEMAN YAHYA RASUL, AYBARS MAHMAT, GUL TOSUN
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引用次数: 0

摘要

在铝合金加工过程中,切屑附着在工具上会影响其性能特征。如今,人们使用不同的冷却系统来消除这些负面影响。在这项研究中,使用高速钢和硬质合金切削刀具对 6061-T6 铝合金进行端铣加工时,采用不同的冷却技术(干式、最小量润滑(MQL)和纳米切削液)对表面粗糙度、切屑厚度比和刀具磨损的影响进行了研究。实验采用了不同的切削速度(180、200、220 米/分钟)和不同的进给率(0.05、0.06、0.07 毫米/转)。实验结果表明,使用纳米切削液和硬质合金刀具,在低切削速度和低进给量条件下,刀具磨损和表面粗糙度均有所下降。据观察,使用纳米切削液时,切屑厚度比随着切削速度的提高而增大,而在干式加工和高进给量时,切屑厚度比则会减小。在使用硬质合金刀具和纳米切削液的实验中,铝合金的铣削性能最佳。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ENHANCING MILLING PERFORMANCE OF 6061 ALUMINUM ALLOY WITH NANOCUTTING FLUID AND MQL

During the machining of aluminum alloys, the adhesion of chips to the tool affects the performance characteristics. Today, different cooling systems are used to eliminate these negativities. In this study, the effects of end milling using HSS and carbide cutting tools of 6061-T6 aluminum alloy on surface roughness, chip thickness ratio and tool wear were examined using different cooling techniques (dry, minimum quantity lubrication (MQL) and nanocutting fluid). Different cutting speeds (180, 200, 220 m/min) and different feed rates (0.05, 0.06, 0.07 mm/rev) were used in the experiments. According to experimental findings, tool wear and surface roughness decreased at low cutting speed and feed rate by using nanocutting fluid with carbide cutting tools. It has been observed that the chip thickness ratio increases with high cutting speeds using nanocutting fluid and decreases with dry machining and high feed rates. The best milling performance of the aluminum alloy was achieved in experiments using carbide cutting tools and nanocutting fluid.

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来源期刊
Surface Review and Letters
Surface Review and Letters 工程技术-物理:凝聚态物理
CiteScore
2.20
自引率
9.10%
发文量
139
审稿时长
4.2 months
期刊介绍: This international journal is devoted to the elucidation of properties and processes that occur at the boundaries of materials. The scope of the journal covers a broad range of topics in experimental and theoretical studies of surfaces and interfaces. Both the physical and chemical properties are covered. The journal also places emphasis on emerging areas of cross-disciplinary research where new phenomena occur due to the presence of a surface or an interface. Representative areas include surface and interface structures; their electronic, magnetic and optical properties; dynamics and energetics; chemical reactions at surfaces; phase transitions, reconstruction, roughening and melting; defects, nucleation and growth; and new surface and interface characterization techniques.
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