Selective laser melting of Er modified AlSi7Mg alloy: Effect of processing parameters on forming quality, microstructure and mechanical properties

Selective Laser Melting (SLM) was used to fabricate Erbium-modified AlSi7Mg alloy. The work aims to investigate the effects of laser volumetric energy density and focus shift on surface quality, internal defects and microstructure during the SLM process. Based on the optimized process parameters, th...

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Published inMaterials science & engineering. A, Structural materials : properties, microstructure and processing Vol. 842; p. 143085
Main Authors Guo, Y.W., Wei, W., Shi, W., Xue, D., Zhou, X.R., Wen, S.P., Wu, X.L., Gao, K.Y., Huang, H., Nie, Z.R.
Format Journal Article
LanguageEnglish
Published Lausanne Elsevier B.V 11.05.2022
Elsevier BV
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Abstract Selective Laser Melting (SLM) was used to fabricate Erbium-modified AlSi7Mg alloy. The work aims to investigate the effects of laser volumetric energy density and focus shift on surface quality, internal defects and microstructure during the SLM process. Based on the optimized process parameters, the effect of rare earth element Er to AlSi7Mg alloy on its microstructure and mechanical properties were studied. With a raise of volumetric energy density, the size of aluminum sub-cells increases, and the high energy density promotes the in-situ precipitation of supersaturated silicon elements in the form of dispersed silicon particles. It was thought that the laser focus shift could change the energy density and the molten pool size, which affected the internal defects and the size of sub-cells plus eutectic silicon particles. The alloy (A357 + 0.2Er wt.%) fabricated by SLM was operating with the optimized processing parameters, then a small amount of equiaxed grains were formed at the boundary of the molten pool, which would promote the refinement of columnar grains and improve the mechanical properties. Meanwhile, the yield strength was 297 MPa, the tensile strength was 441 MPa and the elongation was 8%. •0.2 wt% rare earth element Er modified A357 Alloy was fabricated by selective laser melting.•High volumetric energy density coarsened the sub-cells size and promoted the precipitation of Si.•Defocusing could coarsen the size of sub-cells and eutectic Si particles.•The addition of Er refined the size of columnar cells with the tensile strength of 441 MPa, elongation of 8%.
AbstractList Selective Laser Melting (SLM) was used to fabricate Erbium-modified AlSi7Mg alloy. The work aims to investigate the effects of laser volumetric energy density and focus shift on surface quality, internal defects and microstructure during the SLM process. Based on the optimized process parameters, the effect of rare earth element Er to AlSi7Mg alloy on its microstructure and mechanical properties were studied. With a raise of volumetric energy density, the size of aluminum sub-cells increases, and the high energy density promotes the in-situ precipitation of supersaturated silicon elements in the form of dispersed silicon particles. It was thought that the laser focus shift could change the energy density and the molten pool size, which affected the internal defects and the size of sub-cells plus eutectic silicon particles. The alloy (A357 + 0.2Er wt.%) fabricated by SLM was operating with the optimized processing parameters, then a small amount of equiaxed grains were formed at the boundary of the molten pool, which would promote the refinement of columnar grains and improve the mechanical properties. Meanwhile, the yield strength was 297 MPa, the tensile strength was 441 MPa and the elongation was 8%.
Selective Laser Melting (SLM) was used to fabricate Erbium-modified AlSi7Mg alloy. The work aims to investigate the effects of laser volumetric energy density and focus shift on surface quality, internal defects and microstructure during the SLM process. Based on the optimized process parameters, the effect of rare earth element Er to AlSi7Mg alloy on its microstructure and mechanical properties were studied. With a raise of volumetric energy density, the size of aluminum sub-cells increases, and the high energy density promotes the in-situ precipitation of supersaturated silicon elements in the form of dispersed silicon particles. It was thought that the laser focus shift could change the energy density and the molten pool size, which affected the internal defects and the size of sub-cells plus eutectic silicon particles. The alloy (A357 + 0.2Er wt.%) fabricated by SLM was operating with the optimized processing parameters, then a small amount of equiaxed grains were formed at the boundary of the molten pool, which would promote the refinement of columnar grains and improve the mechanical properties. Meanwhile, the yield strength was 297 MPa, the tensile strength was 441 MPa and the elongation was 8%. •0.2 wt% rare earth element Er modified A357 Alloy was fabricated by selective laser melting.•High volumetric energy density coarsened the sub-cells size and promoted the precipitation of Si.•Defocusing could coarsen the size of sub-cells and eutectic Si particles.•The addition of Er refined the size of columnar cells with the tensile strength of 441 MPa, elongation of 8%.
ArticleNumber 143085
Author Zhou, X.R.
Nie, Z.R.
Wei, W.
Shi, W.
Guo, Y.W.
Xue, D.
Wen, S.P.
Wu, X.L.
Gao, K.Y.
Huang, H.
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Selective laser melting
Microstructure
Defocus
Tensile properties
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SSID ssj0001405
Score 2.5386224
Snippet Selective Laser Melting (SLM) was used to fabricate Erbium-modified AlSi7Mg alloy. The work aims to investigate the effects of laser volumetric energy density...
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SubjectTerms Alloying elements
AlSi7MgEr
Aluminum base alloys
Defects
Defocus
Elongation
Eutectic alloys
Grains
Laser beam melting
Lasers
Mechanical properties
Microstructure
Parameter modification
Process parameters
Rapid prototyping
Rare earth elements
Selective laser melting
Silicon
Surface properties
Tensile properties
Tensile strength
Title Selective laser melting of Er modified AlSi7Mg alloy: Effect of processing parameters on forming quality, microstructure and mechanical properties
URI https://dx.doi.org/10.1016/j.msea.2022.143085
https://www.proquest.com/docview/2696510188
Volume 842
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