Minimum Quantity Cutting Fluid Application for Grinding Weld Flash: Surface Integrity Evaluation

Nithin Rangasamy, Chanda Sekhar Rakurty, Zach Maurer
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引用次数: 3

Abstract

The effect of the grinding process for weld flash removal on the surface integrity of the welded joint has not been researched. The surface integrity of the welded joint is essential for the bandsaw blade life and to prevent any premature failure at the weld joint due to fatigue loading (a band saw blade undergoes mainly cyclic bending fatigue during its service). In this study, the effects of using different cutting fluid combinations on the grinding of weld flash in medium carbon alloy steel were carried out. The use of compressed air (CA) as a sustainable solution for grinding weld flash was explored. An experimental investigation of four different cutting fluid applications (dry/no cutting fluid, compressed air, minimum quantity lubricant using vegetable oil, and minimum quantity coolant using water-soluble oil) was carried out. The surface roughness, sub-surface residual stresses, and microhardness of the ground region were measured. This is a first-of-the-kind study on the effect of the flash removal process on the surface integrity of the welded joint. The results show that the surface integrity of the welded joint is significantly influenced by the cutting fluid application used during the grinding process of the flash. Dry grinding, the current industry standard for grinding weld flash in band saw blades, produced surface tensile residual stresses (24.82 MPa), lowest sub-surface microhardness (43.28 HRc), and the highest surface roughness (3.40 µm). In comparison, the air application had the highest surface compressive residual stresses (−289.57 MPa), highest sub-surface microhardness (48.67 HRc), and relatively low surface roughness (1.61 µm). This study provides the road map for selecting the cutting fluid application for grinding weld flash produced by the resistance welding process in the band sawing industry.
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用于磨削焊缝闪光的最少量切削液:表面完整性评价
消除焊缝闪光的磨削工艺对焊接接头表面完整性的影响尚未得到研究。焊接接头的表面完整性对于延长带锯片的使用寿命和防止因疲劳载荷(带锯片在使用过程中主要经历循环弯曲疲劳)而导致焊缝过早失效至关重要。研究了不同切削液组合对中碳合金钢焊缝闪光磨削的影响。探讨了压缩空气(CA)作为一种可持续的焊接闪光磨削解决方案。对四种不同切削液应用(干/无切削液、压缩空气、使用植物油的最少量润滑剂和使用水溶性油的最少量冷却剂)进行了实验研究。测量了磨削区域的表面粗糙度、亚表面残余应力和显微硬度。这是同类研究中首次研究闪光去除过程对焊接接头表面完整性的影响。结果表明,在闪光磨削过程中使用的切削液对焊接接头的表面完整性有显著影响。干式磨削(目前行业标准)产生的表面拉伸残余应力为24.82 MPa,亚表面显微硬度最低(43.28 HRc),表面粗糙度最高(3.40µm)。相比之下,空气处理具有最高的表面压缩残余应力(−289.57 MPa),最高的亚表面显微硬度(48.67 HRc)和相对较低的表面粗糙度(1.61µm)。本研究为带锯工业中磨削电阻焊产生的焊缝闪光的切削液选择提供了参考。
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