This study presents the development of mathematical models for predicting the mechanical properties of dissimilar DP600 steel-AZ31B magnesium alloy friction stir welded joints. A General Full Factorial Design was employed by considering rotational speed, welding speed, and tool offset as process parameters. Ultimate te...
Kapil B. Pipavat, H. Joshi, G. Acharya· International journal of re...· 0 citations
To improve the efficiency and reliability of process design and parameter optimization in 316L stainless steel laser welding, this study develops a mechanical property prediction model based on a multi-layer perceptron (MLP) neural network. In traditional manufacturing practice, welding parameters are mainly determined...
Xiu-Yu Liang, De-Tian Xie, Qiao-Bo Feng et al.· International Conference on...· 0 citations
Friction stir welding (FSW) subjects the welding tool to severe thermo-mechanical loading, resulting in complex fatigue conditions that limit tool life. Current tool design approaches remain largely empirical, leading to considerable uncertainty in lifetime prediction under realistic process conditions. This study pres...
M. Sennewald, R. Eisbrenner, J. Höhn et al.· Discover Mechanical Engineer...· 0 citations
The study demonstrates that integrating machine learning and Bayesian optimization provides an effective approach for predicting and optimizing surface roughness in WEDM of AISI S7 tool steel.
Saravanan Kasinathan, Lalitha Radhakrishnan, Hariharan Kuppusamy et al.· Proceedings of the Instituti...· 0 citations
Friction stir welding (FSW) of copper is challenging due to its high thermal conductivity, which complicates heat management and joint integrity. This study investigates the process–structure–property relationship in FSW of 5 mm thick commercially pure copper plates using a conventional vertical milling machine as a co...
Mulugeta Belay Tefera, B. Fetene· Discover Mechanical Engineer...· 0 citations
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