60. Recent Investigation on Ultrasonic Machining of Aluminum Metal Matrix Composite

The manufacturing scenario demands that a material with reduced tool wear be manufactured in higher surface finish. Grinding is primarily considered to have outstanding finishing of the surface in certain machining techniques. The scope for improving always occurs in the processes. MRR will not be impaired in the meantime. As this has a significant effect on the process efficiency. The traditional aluminum surface grinding process needs high cutting force and a very low removal rate. Ultrasonic machining (UM) is assisted for surface grinding of Al-MMC in order to minimize and remove these intricacies. This paper provides a study of the mechanical and tribological properties of composites produced by various methods in the aluminum metal matrix. Hybrid composites have shown excellent flexibility in their performance. The benefits of aluminum metal matrix composites (MMCs) include a high weight to strength, high corrosion, and comparatively low cost wear resistance. Due to its thermal stability and exceptional physical strength, they are used in many applications such as concrete, structural, naval, aerospace, defense, and automotive. These MMCs are non-conventional engineering materials, reinforced by materials with improved mechanical and tribological characteristics, factor-designed behavior, which explores the impact of vibration and turning condition on the surface finish of the turning MMC, demonstrate that the roughness of the MMC turned on with ultrasounds. Turning with vibration produces normal surface profiles in the direction of turning and vibration, leading to a process of light dispersion. The pitch of the ordinary profiles is just within a limited spectrum of this phenomenon. In this study, interdisciplinary observations on Al metal matrix were carried out with UM under the reaction of surface grinding by the material. This paper provides guidelines for upcoming research studies on the effects of Al-MMC’s results of ultrasonic machining studies.