Fabrication of Surface Metal Matrix Composite of AA7075 using Friction Stir Processing

A. Md
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Abstract

Friction stir processing (FSP), derived from the friction stir welding (FSW) process, is an emerging novel, green and energy-efficient processing technique to fabricate surface composite. The FSP technique has been used in the present investigation to fabricate surface composites, using Aluminium Alloy 7075 as parent metal and Titanium Dioxide and Silicon Carbide powder particles as reinforcement. Aluminium Alloy 7075 has been selected as the matrix phase, as being widely used by the automotive and aerospace application and has the highest strength among all commercial Al alloys. The present work details the fabrication of surface composites using various reinforcement combinations like AA7075- TiO2, AA7075- and AA7075- SiC, TiO2+SiC at constant tool rotation, tool travel speed and the number of passes have been discussed. The same being intended to improve hardness and thereby wear resistance. The fabricated surface composites are examined for microstructure using an image analyzer and found friction stir processed zone with fine microstructure than the base material. It is also observed that the average hardness of friction stir processed surface composite was higher than that of parent metal. Wear Resistance is found to be improved compared to the parent metal. It is found that Tensile strength is also enhanced than the base material.
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搅拌摩擦法制备AA7075表面金属基复合材料
搅拌摩擦加工(FSP)是由搅拌摩擦焊接(FSW)工艺发展而来的一种新型、绿色、节能的表面复合材料加工技术。本研究采用FSP技术制备了以7075铝合金为母材,二氧化钛和碳化硅粉末颗粒为增强剂的表面复合材料。铝合金7075已被选定为基体相,广泛用于汽车和航空航天应用,在所有商用铝合金中强度最高。本工作详细讨论了在恒定刀具旋转、刀具行进速度和道次下,使用AA7075- TiO2、AA7075-和AA7075- SiC、TiO2+SiC等不同增强组合制备表面复合材料。同样的目的是提高硬度,从而提高耐磨性。利用图像分析仪对制备的表面复合材料进行微观结构分析,发现搅拌摩擦加工区比基材的微观结构好。搅拌摩擦处理后的表面复合材料的平均硬度高于母材。与母材相比,耐磨性得到了提高。拉伸强度也比基材有所提高。
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来源期刊
Academic Journal of Manufacturing Engineering
Academic Journal of Manufacturing Engineering Engineering-Industrial and Manufacturing Engineering
CiteScore
0.40
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