Experimental and finite element simulation for thermal distribution in TIG, MIG and TIG-MIG hybrid welds

The Tungsten Inert Gas-Metal Inert Gas (TIG-MIG) hybrid process has the combined advantages of standalone TIG and MIG welding processes. This study investigates the thermal distribution of the TIG-MIG hybrid welding process compared to the standalone TIG and MIG welding processes. The welds' me...

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Bibliographic Details
Published in:International journal on interactive design and manufacturing 2024-04, Vol.18 (3), p.1171-1181
Main Authors: Abima, Cynthia Samuel, Madushele, Nkosinathi, Mwema, Fredrick Madaraka, Akinlabi, Stephen Akinwale
Format: Article
Language:English
Subjects:
CAE) and Design
Computer-Aided Engineering (CAD
Electronics and Microelectronics
Engineering
Engineering Design
Evolution
Finite element method
Friction stir welding
Gas metal arc welding
Gas tungsten arc welding
Industrial Design
Instrumentation
Investigations
Lasers
Mechanical Engineering
Mechanical properties
Optimization
Original Paper
Process parameters
Rare gases
Residual stress
Seam welds
Simulation
Taguchi methods
Temperature
Temperature profiles
Tensile strength
Thermal simulation
Thermodynamic properties
Yield stress
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Summary:The Tungsten Inert Gas-Metal Inert Gas (TIG-MIG) hybrid process has the combined advantages of standalone TIG and MIG welding processes. This study investigates the thermal distribution of the TIG-MIG hybrid welding process compared to the standalone TIG and MIG welding processes. The welds' mechanical properties, microstructural evolution, and phase formation are also discussed. The process parameters for the TIG-MIG, TIG and MIG welding processes used in this study were obtained from prior parametric optimisation for each welding process performed by the Taguchi method with an L-9 orthogonal matrix. The thermal behaviour of TIG, MIG and TIG-MIG welds were investigated by adopting the Gaussian heat source model on the ANSYS workbench. The simulated temperature distributions of the three weld types were validated by the mechanical, microstructural, and phase formation characteristics as obtained experimentally. Similar temperature profiles were observed for all weld types having peak temperatures at the weld seams. The simulated temperature distributions were in good correlation with the experimentally obtained the hardness results, microstructural evolution and phase formation, as revealed from the X-ray diffraction analysis. Hence, the Gaussian heat source model can accurately simulate the properties of a complex heat source interaction, allowing for process optimisation and forecasting.
ISSN:1955-2513
1955-2505
DOI:10.1007/s12008-022-01173-9