The Evaluation of Tribological Performance of Laser Micro-Texturing Ti6Al4V Under Lubrication With Protic Ionic Liquid

J. Pang, Hong Guo, Juan Manuel Vázquez Martínez, J. Salguero, Patricia Iglesias Victoria
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Abstract

Laser micro-texturing treatment has been proved as an efficient way to improve tribological properties of metal alloys. Meanwhile, ionic liquids also show great potential as novel lubricant additives to increase the durability of contacting components and decrease the energy loss during tribological process. This study investigated the influence of the laser micro texturing surfaces on the tribological performance of titanium alloy Ti6Al4V under different lubricant conditions. In this research, two sets of dimple-textured surfaces created by different laser parameters, energy density and area density, were fabricated on Ti6Al4V. Polyalphaolefin (PAO) 40 and 1 wt.% 2-hydroxyethylammonium 2-ethylhexanoate (Eet) used as additive to PAO 40 were designed as lubricants during the sliding tests. First, the geometrical properties of laser micro-textures on the surfaces were characterized. The wetting behaviors of different lubricants on textured surfaces were then examined based on contact angle measurement. All the frictional tests were carried out on the ball-on-flat reciprocating tribometer under the same working conditions. Lastly, the surface morphology of the wear tracks on Ti6Al4V and tungsten carbide balls and their wear mechanisms were evaluated by using the optical microscope, scanning electron microscope, and energy-dispersive X-ray spectroscopy. The results exhibit the laser micro-textures have a positive effect on improving the tribological performance of Ti6Al4V. Meanwhile, the use of Eet as the lubricant additive to PAO 40 can facilitate the formation of the tribo-layer, which enhances the tribological behavior of laser micro-texturing Ti6Al4V surfaces.
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质子离子液体润滑下激光微织构Ti6Al4V摩擦学性能评价
激光微织构处理是改善金属合金摩擦学性能的有效方法。同时,离子液体作为新型润滑剂添加剂在提高接触部件的耐久性和减少摩擦过程中的能量损失方面也显示出巨大的潜力。研究了不同润滑条件下激光微织构表面对Ti6Al4V钛合金摩擦学性能的影响。本研究在Ti6Al4V上制备了两组不同激光参数(能量密度和面积密度)的韧窝纹理表面。在滑动试验中,以聚α -烯烃(PAO) 40和1 wt.%的2-羟乙基己酸铵(Eet)作为PAO 40的添加剂作为润滑剂。首先,对表面激光微纹理的几何特性进行了表征。基于接触角测量,研究了不同润滑剂在织构表面的润湿行为。所有的摩擦试验都是在相同工作条件下的平球往复摩擦计上进行的。最后,利用光学显微镜、扫描电镜和能量色散x射线能谱分析了Ti6Al4V和碳化钨球的表面形貌及其磨损机理。结果表明,激光微织构对提高Ti6Al4V的摩擦学性能有积极的作用。同时,在PAO 40中加入Eet作为润滑添加剂,有利于摩擦层的形成,增强了激光微织构Ti6Al4V表面的摩擦学性能。
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