CONTINUOUS CASTING OF THE CLADDING 3003/4004 ALUMINUM ALLOY CIRCULAR INGOT

doi:10.3724/SP.J.1037.2012.00507

Acta Metall Sin

2013, Vol. 49

Issue (3): 297-302 DOI: 10.3724/SP.J.1037.2012.00507

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CONTINUOUS CASTING OF THE CLADDING 3003/4004 ALUMINUM ALLOY CIRCULAR INGOT

LI Jizhan¹, FU Ying¹, JIE Jinchuan¹, ZHAO Jialei¹, Joonpyo Park², Jongho Kim ²,LI Tingju¹

1) School of Materials Science and Engineering, Dalian University of Technology, Dalian 116024
2) Research Institute of Industrial Science and Technology (RIST), Pohang 790--600, Korea

Cite this article:

LI Jizhan, FU Ying, JIE Jinchuan, ZHAO Jialei, Joonpyo Park, Jongho Kim,LI Tingju. CONTINUOUS CASTING OF THE CLADDING 3003/4004 ALUMINUM ALLOY CIRCULAR INGOT. Acta Metall Sin, 2013, 49(3): 297-302.

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Abstract

Cladding metals have been widely applied to many fields because they have many excellentphysical, chemical and mechanical properties that can not be obtained from the single metals. There are manyconventional processes for manufacturing cladding metals, for example roll bonding, diffusion bonding, explosivewelding, extrusion cladding and casting cladding. Among these processes, continuous casting is an ideal processto prepare cladding metals which has the advantages of high production efficiency, low production cost and goodinterface bonding. This process can make two metals contact directly by the ways of one liquid-one liquid, oneliquid-one solid or one liquid-one semi-solid and then the good metallurgical bonding can be obtained. So, thisprocess is extensively studied by researchers engaging in material processing. The process of the directwater-cooled continuous casting to fabricate cladding 3003/4004 aluminum alloy circular ingot is researched inthis paper. The 3003 aluminum alloy has excellent corrosion resistance, low strength and high melting point, whilethe 4004 aluminum alloy has poor corrosion resistance, high strength and low melting point. The cladding3003/4004 aluminum alloy material can combine the advantages of two metals and can be widely used in manyfields, especially in car engine and air conditioning heat sink. To obtain the good interface bonding, a special innermold with the single-side cooling capability was applied in this process. By the special inner mold, the two alloyscan make the contact of one liquid-one solid or one liquid-onesemi-solid on the interface. The solidification structure and elemental distribution near the interfaceof cladding ingot were systematically detected by OM, SEM and EPAM. Tensile test was carried out to evaluate theinterface bonding strength. The OM results indicated thatthe interface of cladding 3003/4004 aluminum alloy ingot was clear without gas holes and slag inclusion. Mostgrains were equiaxed in the cross-section of cladding 3003/4004 aluminum alloy circular ingot. The EPAM resultssuggested that the interdiffusion of alloy elements in 3003 and 4004 alloy occurred and there was an about 30μmwide diffusion layer near the interface. The entire tensile specimen fractured in the sides of 3003 alloy with theaverage ultimate tensile strength of 107.7 MPa, indicating that the interface bonding strength of cladding ingotwas higher than the ultimate tensile strength of 3003 alloy and the good metallurgical bonding near the interface wasobtained by this process.

Key words: cladding ingot continuous casting interface morphology interface bonding strength

Received: 30 August 2012

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	LI Jizhan
	FU Ying
	JIE Jinchuan
	ZHAO Jialei
	Joonpyo Park
	Jongho Kim
	LI Tingju

URL:

https://www.ams.org.cn/EN/10.3724/SP.J.1037.2012.00507 OR https://www.ams.org.cn/EN/Y2013/V49/I3/297

[1] Sun J B, Song X Y, Wong T M, Yu Y S, Sun M, Cao Z Q, Li T J.Mater Lett, 2012; 67: 21

[2] Peng X K, Heness G, Yeung W Y.J Mater Sci, 1999; 34: 277

[3] Manesh H D, Taheri A K.Mech Mater, 2005; 37: 531

[4] Eizadjou M, Manesh H D, Janghorban K.Mater Des, 2008; 29: 909

[5] Wang T M, Li J, Du Y Y, Yang Z M, Sun J B, Cai H W, Xu J J, Li T J.Mater Res Inn, 2010; 14: 271

[6] Xiong B W, Cai C C, Wan H, Lu B P.Mater Des, 2011; 32: 2978

[7] Ramazan K, Mustafa A.J Mater Proc Technol, 2004; 152: 91

[8] Akbari--Mousavi S A A, Barrett L, Al--Hassani S T S.J Mater Proc Technol, 2008; 202: 224

[9] Ahmet D, Behcet G, Fehim F.Mater Des, 2005; 26: 497

[10] Liu D Y, Liu S C, Chen R S, Wang X F.Trans Mater Heat Treat, 2007; 28: 110

(刘德义, 刘世程, 陈汝淑, 王晓峰. 材料热处理学报, 2007; 28: 110)

[11] Qu S J, Geng L, Cao G J, Lei T Q.Acta Mater Compos Sin, 2003; 20(3): 69

(曲寿江, 耿林, 曹国剑, 雷廷权. 复合材料学报, 2003; 20(3): 69)

[12] Takeuchi E, Zene M.Iron Steel, 1997; 24: 257

[13] Wang Z T.Light Alloy Fabr Technol, 2007; 35: 1

(王祝堂. 轻合金加工技术, 2007; 35: 1)

[14] Zhang W W, Zou G F, Deng C N.Acta Metall Sin, 1998; 34: 609

(张卫文, 邹敢峰, 邓长宁. 金属学报, 1998; 34: 609)

[15] Zhang W W, Rohatgi P K, Shao M, Li Y Y.Mater Sci Eng, 2009; A505: 120

[16] Wu C J, Yu Z M, Xie J X, Wu Y.Foundry, 2004; 53: 432

(吴春京, 于治民, 谢建新, 吴渊. 铸造, 2004; 53: 432)

[17] Xie J X, Wu C J, Zhou C.Chin Pat, 01109076.6, 2002

(谢建新, 吴春京, 周成. 中国专利, 01109076.6, 2002)

[18] Xue Z Y, Qin Y Q, Wu C J.J Univ Sci Technol Beijing, 2005; 27: 706

(薛志勇, 秦延庆, 吴春京. 北京科技大学学报, 2005; 27: 706)

[19] Xue Z Y, Wu C J, Xie J X.Spec Cast Nonferrous Alloys, 2006; 26: 101

(薛志勇, 吴春京, 谢建新. 特种铸造及有色合金, 2006; 26: 101)

[20] Xu F, Zhang W W, Luo Z Q, Kang Z X.Spec Cast Nonferrous Alloys, 2007; 27: 624

(许峰, 张卫文, 罗宗强, 康志新. 特种铸造及有色合金, 2007; 27: 624)

[21] Song X Y, Sun J B, Zhong D S, Yu Y S, Wang T M, Cao Z Q, Li T J.Mater Res Inn, 2012; 16: 51

[22] Cao Z Q, Liu B, Sun J B, Song X Y, Sun M, Wang T M, Li T J.J Wuhan Univ Sci Technol, 2012; 35: 19

(曹志强, 刘彬, 孙建波, 宋晓阳, 孙敏, 王同敏, 李廷举. 武汉科技大学学报, 2012; 35: 19)

[23] Wu C H.Master Thesis, Dalian University of Technology, 2005

(吴彩虹. 大连理工大学硕士学位论文, 2005)

[24] Li Y T.Master Thesis, Dalian University of Technology, 2003

(李玉婷. 大连理工大学硕士学位论文, 2003)

[25] Zhang X Z, Na X Z, Wang Z Y, Liu A Q, Gan Y.Acta Metall Sin, 2004; 40: 281

(张兴中, 那贤昭, 王忠英, 刘爱强, 干勇. 金属学报, 2004; 40: 281)

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