High strain rate superplasticity of metal matrix composites

Tsunemichi Imai; Shangli Dong; Liang Zhen; Ichinori Shigematsu; Naobumi Saito

High strain rate superplasticity of metal matrix composites

Tsunemichi Imai^*
, Shangli Dong
, Liang Zhen
, Ichinori Shigematsu
, Naobumi Saito

^*Corresponding author for this work

School of Materials Science and Engineering

National Institute of Advanced Industrial Science and Technology
Harbin Institute of Technology

Research output: Contribution to conference › Paper › peer-review

1 Scopus citations

Abstract

High strain rate superplasticity (HSRS) is an efficient near-net shape forming method for metal matrix composites (MMC) applicable to automobile components, semi-conductor packaging, structures in aerospace industry and even for housings in IT industry. The objectives of this study are to investigate the effect of matrix alloy elements on the HSRS in TiN particulate reinforced aluminum composites and to discuss the superplastic deformation mechanism of the HSRS composite. With a matrix of pure aluminum, TiN/1N90 produced an m value of about0.4 and total elongation of 200% at a strain rate of about 10^-2s^-1V and 928K, which is below the melting temperature of 1N90 pure aluminum. TiN/2014 and TiN/2017 Al composite with volume fraction V_f = 0.15 exhibited an m value of about 0.4 at strain rates higher than 10^-1s^-1 and maximum tensile elongation of about 200-350% at a strain rate of about 3×10^-1s^-1 at 818k which was above the solidus temperature of matrix. However, the total elongation of the TiN/2014 is larger than that of the TiN/2017 so the larger amount of Mg in 2014A1 is thought to have an effect on total elongation of TiN/Al composites.

Original language	English
Pages	185-191
Number of pages	7
State	Published - 2003
Event	Hot Deformation od Aluminum Alloys III - San Diego, CA, United States Duration: 2 Mar 2003 → 6 Mar 2003

Conference

Conference	Hot Deformation od Aluminum Alloys III
Country/Territory	United States
City	San Diego, CA
Period	2/03/03 → 6/03/03

Cite this

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title = "High strain rate superplasticity of metal matrix composites",

abstract = "High strain rate superplasticity (HSRS) is an efficient near-net shape forming method for metal matrix composites (MMC) applicable to automobile components, semi-conductor packaging, structures in aerospace industry and even for housings in IT industry. The objectives of this study are to investigate the effect of matrix alloy elements on the HSRS in TiN particulate reinforced aluminum composites and to discuss the superplastic deformation mechanism of the HSRS composite. With a matrix of pure aluminum, TiN/1N90 produced an m value of about0.4 and total elongation of 200\% at a strain rate of about 10-2s-1V and 928K, which is below the melting temperature of 1N90 pure aluminum. TiN/2014 and TiN/2017 Al composite with volume fraction Vf = 0.15 exhibited an m value of about 0.4 at strain rates higher than 10-1s-1 and maximum tensile elongation of about 200-350\% at a strain rate of about 3{\texttimes}10-1s-1 at 818k which was above the solidus temperature of matrix. However, the total elongation of the TiN/2014 is larger than that of the TiN/2017 so the larger amount of Mg in 2014A1 is thought to have an effect on total elongation of TiN/Al composites.",

author = "Tsunemichi Imai and Shangli Dong and Liang Zhen and Ichinori Shigematsu and Naobumi Saito",

year = "2003",

language = "英语",

pages = "185--191",

note = "Hot Deformation od Aluminum Alloys III ; Conference date: 02-03-2003 Through 06-03-2003",

}

TY - CONF

T1 - High strain rate superplasticity of metal matrix composites

AU - Imai, Tsunemichi

AU - Dong, Shangli

AU - Zhen, Liang

AU - Shigematsu, Ichinori

AU - Saito, Naobumi

PY - 2003

Y1 - 2003

N2 - High strain rate superplasticity (HSRS) is an efficient near-net shape forming method for metal matrix composites (MMC) applicable to automobile components, semi-conductor packaging, structures in aerospace industry and even for housings in IT industry. The objectives of this study are to investigate the effect of matrix alloy elements on the HSRS in TiN particulate reinforced aluminum composites and to discuss the superplastic deformation mechanism of the HSRS composite. With a matrix of pure aluminum, TiN/1N90 produced an m value of about0.4 and total elongation of 200% at a strain rate of about 10-2s-1V and 928K, which is below the melting temperature of 1N90 pure aluminum. TiN/2014 and TiN/2017 Al composite with volume fraction Vf = 0.15 exhibited an m value of about 0.4 at strain rates higher than 10-1s-1 and maximum tensile elongation of about 200-350% at a strain rate of about 3×10-1s-1 at 818k which was above the solidus temperature of matrix. However, the total elongation of the TiN/2014 is larger than that of the TiN/2017 so the larger amount of Mg in 2014A1 is thought to have an effect on total elongation of TiN/Al composites.

AB - High strain rate superplasticity (HSRS) is an efficient near-net shape forming method for metal matrix composites (MMC) applicable to automobile components, semi-conductor packaging, structures in aerospace industry and even for housings in IT industry. The objectives of this study are to investigate the effect of matrix alloy elements on the HSRS in TiN particulate reinforced aluminum composites and to discuss the superplastic deformation mechanism of the HSRS composite. With a matrix of pure aluminum, TiN/1N90 produced an m value of about0.4 and total elongation of 200% at a strain rate of about 10-2s-1V and 928K, which is below the melting temperature of 1N90 pure aluminum. TiN/2014 and TiN/2017 Al composite with volume fraction Vf = 0.15 exhibited an m value of about 0.4 at strain rates higher than 10-1s-1 and maximum tensile elongation of about 200-350% at a strain rate of about 3×10-1s-1 at 818k which was above the solidus temperature of matrix. However, the total elongation of the TiN/2014 is larger than that of the TiN/2017 so the larger amount of Mg in 2014A1 is thought to have an effect on total elongation of TiN/Al composites.

UR - https://www.scopus.com/pages/publications/0038386760

M3 - 论文

AN - SCOPUS:0038386760

SP - 185

EP - 191

T2 - Hot Deformation od Aluminum Alloys III

Y2 - 2 March 2003 through 6 March 2003

ER -

High strain rate superplasticity of metal matrix composites

Abstract

Conference

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