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Microstructural and mechanical properties analysis of SS 316L structure fabricated using CMT-wire arc additive manufacturing

Integrating robotic arm technology with cold metal transfer (CMT) has revolutionized wire arc additive manufacturing (WAAM). The research work consists of the fabrication of SS 316L WAAM using the CMT technique. Investigations of mechanical and microstructural properties, i.e. residual stress measur...

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Published in:Journal of adhesion science and technology 2025-01, Vol.39 (1), p.133-153
Main Authors: Jain, Sudeep Kumar, Murtaza, Qasim, Singh, Pushpendra
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description Integrating robotic arm technology with cold metal transfer (CMT) has revolutionized wire arc additive manufacturing (WAAM). The research work consists of the fabrication of SS 316L WAAM using the CMT technique. Investigations of mechanical and microstructural properties, i.e. residual stress measurement (RSM), microhardness (MH), ultimate tensile strength (UTS), percentage elongation (PE), and microstructure of WAAM sample and cold rolled (CR) plate, results were compared. WAAM attained an UTS of 590 MPa, with an average yield strength (YS) of around 302 MPa, exceeding the CR plate's UTS of 557 MPa while maintaining a similar YS of 305 MPa. WAAM and the CR plate exhibited nearly identical PE, with 64% and 62% values, respectively. Residual stress analysis revealed that the WAAM sample showed an average compressive residual stress of 124 MPa, accounting for 87% of the average residual stress observed in the CR plate, which measured 142 MPa. The MH profile of WAAM revealed an average value of 230 HV 0.5 , accounting for 88% of the MH observed in the CR plate at 260 HV 0.5 . The performance of WAAM closely matched that of the CR plate in terms of residual stress and MH.
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subjects Additive manufacturing
Austenitic stainless steels
CMT welding
Compressive properties
Industrial robots
Manufacturing
Mechanical properties
Microhardness
Microstructure
Residual stress
residual stress measurement
Robot arms
SS 316L
Stress analysis
Stress measurement
Ultimate tensile strength
WAAM
Wire
Yield strength
title Microstructural and mechanical properties analysis of SS 316L structure fabricated using CMT-wire arc additive manufacturing
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