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Investigation Of Corrosion In WAAM Manufactured Materials

Investigation of Corrosion in WAAM Manufactured Materials
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Among the many additive manufacturing processes, Wire Arc Additive Manufacturing (WAAM) has recently been drawing interest due to its great and attractive prospect for fabrication of large parts, the possibility to process a vast range of materials in form of welding wires, and the addition of further details to semi-finished components [1]. However, most of the research have currently focused on optimization of the WAAM process parameters and analysis of the resulting thermal and residual stresses [2]. Unlike conventional manufacturing processes, WAAM process and post-processing treatments result in unique microstructures and material surfaces that alter the corrosion performance of the materials but are not fully studied or understood yet.  

Product Number: 51322-18133-SG
Author: Aishwarya, Benoit Verquin, Quentin Petavy, Robert Shandro, Liam Kok Chye
Publication Date: 2022
Industries: Corrosion Monitoring and Control , Coatings
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$20.00
$20.00

To develop the commercial applicability of Wire-Arc Additive Manufacturing (WAAM), there is a crucial need to understand the corrosion behaviour of the fabricated materials for industry acceptance. It is wellknown that WAAM process has a complex thermal process, resulting in unique microstructures and material surfaces. The current studies on corrosion resistance in the WAAM process are focused on Stainless Steels, Steels and Nickel-based alloys due to the potential industrial applications. Hence, a comprehensive review of the resulting microstructural evolution and corrosion resistance of the WAAM manufactured Stainless Steels, Steels and Nickel-based alloys has been presented. 

To develop the commercial applicability of Wire-Arc Additive Manufacturing (WAAM), there is a crucial need to understand the corrosion behaviour of the fabricated materials for industry acceptance. It is wellknown that WAAM process has a complex thermal process, resulting in unique microstructures and material surfaces. The current studies on corrosion resistance in the WAAM process are focused on Stainless Steels, Steels and Nickel-based alloys due to the potential industrial applications. Hence, a comprehensive review of the resulting microstructural evolution and corrosion resistance of the WAAM manufactured Stainless Steels, Steels and Nickel-based alloys has been presented. 

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