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Effects of Pre‐Placed Nano‐TiC Powder on the Performance of Steel/Aluminum Laser Welded Joints

The steel/aluminum dissimilar metal welding plays a significant role in lightweighting automotive structures. However, the formation of hard and brittle intermetallic compounds (IMCs) in steel/aluminum welded joints severely compromises their mechanical performance. Nano ceramic particles such as Ti...

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Published in:Steel research international 2024-12, Vol.95 (12), p.n/a
Main Authors: Zhu, Zhiwei, Guo, Yonghuan, Zhang, Xinran, Lu, Xiangning, Wang, Xiwen
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Language:English
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Guo, Yonghuan
Zhang, Xinran
Lu, Xiangning
Wang, Xiwen
description The steel/aluminum dissimilar metal welding plays a significant role in lightweighting automotive structures. However, the formation of hard and brittle intermetallic compounds (IMCs) in steel/aluminum welded joints severely compromises their mechanical performance. Nano ceramic particles such as TiC possess characteristics that inhibit the diffusion of Fe and Al, thereby exhibiting a significant advantage in suppressing IMCs formation in steel/aluminum welded joints. In this study, an optimized laser‐welding process is employed to investigate the mechanical properties of steel/aluminum dissimilar metal joints with different concentrations of TiC nanoparticles. It is aimed to determine the optimal TiC addition concentration by comparing the mechanical performance. Additionally, the inhibitory effect of TiC particles on the formation and growth of brittle Fe–Al IMCs is explored through an analysis of IMCs growth kinetics. In the research results, it is shown that the optimal TiC addition concentration is 1%. At this concentration, the tensile strength of the steel/aluminum welded joint reaches 98.29 MPa, showing a remarkable improvement of 32.65% compared to the sample without TiC addition. The addition of TiC particles suppresses the mutual diffusion between Fe and Al, reduces the generation of brittle IMCs, and enhances the mechanical performance of the steel/aluminum joint. TiC enhances steel/aluminum welds, boosting strength by 32.65% with a 1 wt% concentration. TiC's characteristics impede Fe and Al diffusion and inhibit brittle intermetallic compound formation, elevating joint performance. In this study, TiC's crucial role in suppressing IMCs is underscored, enhancing mechanical properties for lightweight automotive structures.
doi_str_mv 10.1002/srin.202400470
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However, the formation of hard and brittle intermetallic compounds (IMCs) in steel/aluminum welded joints severely compromises their mechanical performance. Nano ceramic particles such as TiC possess characteristics that inhibit the diffusion of Fe and Al, thereby exhibiting a significant advantage in suppressing IMCs formation in steel/aluminum welded joints. In this study, an optimized laser‐welding process is employed to investigate the mechanical properties of steel/aluminum dissimilar metal joints with different concentrations of TiC nanoparticles. It is aimed to determine the optimal TiC addition concentration by comparing the mechanical performance. Additionally, the inhibitory effect of TiC particles on the formation and growth of brittle Fe–Al IMCs is explored through an analysis of IMCs growth kinetics. In the research results, it is shown that the optimal TiC addition concentration is 1%. At this concentration, the tensile strength of the steel/aluminum welded joint reaches 98.29 MPa, showing a remarkable improvement of 32.65% compared to the sample without TiC addition. The addition of TiC particles suppresses the mutual diffusion between Fe and Al, reduces the generation of brittle IMCs, and enhances the mechanical performance of the steel/aluminum joint. TiC enhances steel/aluminum welds, boosting strength by 32.65% with a 1 wt% concentration. TiC's characteristics impede Fe and Al diffusion and inhibit brittle intermetallic compound formation, elevating joint performance. 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At this concentration, the tensile strength of the steel/aluminum welded joint reaches 98.29 MPa, showing a remarkable improvement of 32.65% compared to the sample without TiC addition. The addition of TiC particles suppresses the mutual diffusion between Fe and Al, reduces the generation of brittle IMCs, and enhances the mechanical performance of the steel/aluminum joint. TiC enhances steel/aluminum welds, boosting strength by 32.65% with a 1 wt% concentration. TiC's characteristics impede Fe and Al diffusion and inhibit brittle intermetallic compound formation, elevating joint performance. 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subjects Aluminum
Brittleness
ceramic particles
Diffusion welding
Dissimilar material joining
dissimilar metal weldings
Dissimilar metals
Fe–Al intermetallic compounds
Intermetallic compounds
intermetallic compounds growth kinetics
Iron
Laser beam welding
mechanical performance
Mechanical properties
Metal joints
Steel
Tensile strength
Titanium carbide
Welded joints
title Effects of Pre‐Placed Nano‐TiC Powder on the Performance of Steel/Aluminum Laser Welded Joints
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