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Friction stir welding evolution, hybrid technologies and shoulder shape

Friction stir welding (FSW) are inherently used for joining of dissimilar metals in manufacturing industries, especially in aerospace and automobile parts, but the investigation for optimum condition remain inconclusive. Hence, this study reveals the efficacy of FSW process alongside hybrid technolo...

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Published in:International journal on interactive design and manufacturing 2023-08, Vol.17 (4), p.1443-1458
Main Authors: Vinith, B., Dharshan, S. A. Dhanush, Aravind, S., Singh, Bipin Kumar
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description Friction stir welding (FSW) are inherently used for joining of dissimilar metals in manufacturing industries, especially in aerospace and automobile parts, but the investigation for optimum condition remain inconclusive. Hence, this study reveals the efficacy of FSW process alongside hybrid technologies towards welding of similar and dissimilar materials like aluminum, copper, and steel. The optimum condition for maximum welding strength obtain by FSW process is reveal as rotational speed around of 1000–1400 rpm, transverse speed in between 40 and 60 mm min −1 and tilt angle around 2°. Apart from said parameters some researchers also found that the high values of process parameters have beneficial effect on the weld strength. In addition with process parameter, the annealing effect provided by allied technology fuelled the weld strength to maximum, due to formation of equiaxed fine grain in stir and heat affected zone. The maximum welding strength compile through various articles is found as 250–300 MPa for aluminium alloy, 350–500 MPa for copper alloy whereas, for steel alloys more than 500 MPa. The review also observed there are three factors i.e. concave shape at the end of shoulder, the ratio of shoulder diameter to pin should be less than 3 and shape of shoulder cylindrical, triangular and hexagonal can be prefer to achieve maximum weld strength. Finally, the conclusion provides an insight towards optimum conditions that can be apply in aerospace as well as automobile sectors for getting high productivity.
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subjects Alloy steels
Aluminum base alloys
Aluminum composites
Automotive parts
CAE) and Design
Computer-Aided Engineering (CAD
Copper
Copper base alloys
Dissimilar material joining
Dissimilar materials
Dissimilar metals
Electronics and Microelectronics
Engineering
Engineering Design
Friction stir welding
Gases
Heat affected zone
Industrial Design
Instrumentation
Magnesium alloys
Mechanical Engineering
Metals
Process parameters
Review
Shipbuilding
Steel alloys
Tensile strength
Titanium alloys
Weight reduction
Weld strength
Welding parameters
title Friction stir welding evolution, hybrid technologies and shoulder shape
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