Study on Performance of Aluminum Alloy/Stainless Steel Joint  Welded by Thermal Compensation Resistance Spot Welding

China Mechanical Engineering ›› 2013, Vol. 24 ›› Issue (20): 2815-2819.

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Study on Performance of Aluminum Alloy/Stainless Steel Joint Welded by Thermal Compensation Resistance Spot Welding

Shi Hongxin1;Qiu Ranfeng1;Zhang Xiaojiao1;Yin Danqing1;Yu Hua1;Zhang Keke1;Satonaka Shinobu2

1.Henan Key Laboratory of Advanced Non-ferrous Metals,Henan University of Science and Technology,Luoyang,Henan,471003
2.Kumamoto University,Kurokami 2-39-1,Kumamoto,860-8555,Japan

Online:2013-10-25 Published:2013-10-25
Supported by:

National Natural Science Foundation of China（No. U1204520）；

Henan Provincial Key Technology R&D Program（No. 112102210176）

铝合金与不锈钢热补偿电阻点焊接头性能研究

石红信1;邱然锋1;张晓娇1;尹丹青1;于华1;张柯柯1;里中忍2

1.河南科技大学河南省有色金属材料科学与加工技术重点实验室,洛阳,471003
2.日本国立熊本大学,日本熊本市,860-8555

基金资助:
国家自然科学基金-河南省人才培养基金联合资助项目（U1204520 ）；河南省科技攻关项目（112102210176）；河南省基础与前沿技术研究计划资助项目（122300410202 ）;河南省高校科技创新团队支持计划资助项目（13IRTSTHN003）
National Natural Science Foundation of China（No. U1204520）；

Henan Provincial Key Technology R&D Program（No. 112102210176）

Abstract

Abstract:

Aluminum alloy A5052 and austenitic stainless steel SUS304 was welded using a thermal compensation resistance spot welding method. The influence of welding parameters on the shear and tensile strength of the joint was investigated. The interfacial reaction layer morphological character and its thickness distribution on the welding interface was observed and analyzed using electron microscopy. A serration reaction layer,where the thickness varied with the welding current and position at the welding interface, was observed. Mechanical property analysis reveals that the reaction layer has little effect on the tensile shear strength of the joint and affects the cross tension strength of the joint.

Key words: aluminum alloy, stainless steel, resistance spot welding, interface

摘要：

采用热补偿工艺垫片电阻点焊法对铝合金A5052与不锈钢SUS304异种材料进行了焊接。探讨了焊接参数对接头的抗剪与抗拉性能的影响，并通过电子显微镜对接合界面区进行了观察,分析了界面反应物形貌及厚度分布等微观特性。研究结果显示：一锯齿状反应层在接合界面生成，其厚度随焊接电流以及界面上位置的变化而变化,界面反应层对接头抗剪强度无影响，但能减弱接头抗拉强度。

关键词: 铝合金, 不锈钢, 电阻点焊, 界面

CLC Number:

TG162.83

Shi Hongxin1;Qiu Ranfeng1;Zhang Xiaojiao1;Yin Danqing1;Yu Hua1;Zhang Keke1;Saton. Study on Performance of Aluminum Alloy/Stainless Steel Joint Welded by Thermal Compensation Resistance Spot Welding[J]. China Mechanical Engineering, 2013, 24(20): 2815-2819.

石红信1;邱然锋1;张晓娇1;尹丹青1;于华1;张柯柯1;里中忍2. 铝合金与不锈钢热补偿电阻点焊接头性能研究[J]. 中国机械工程, 2013, 24(20): 2815-2819.

References

[1]Qiu Ranfeng,Iwamoto C* Satonaka S. In Situ Scan-ning Electron Microscopy Observation of FractureCrack Propagation in the Welding Interface betweenAluminum Alloy and Steel [J], Material's Scienceand Technology, 2009,25 : 1189-1192.
[2]Qiu Ranfeng, Iwamoto Chihiro, Satonaka Shinobu. TheInfluence of Reaction Layer on the Strength of Alumi-num/ Steel Joint Welded by Resistance Spot Welding[J].Materials Characterization,2009,60: 156-159.
[3]Yilmaz M, Col M, Acet M. Interface Properties ofAluminum/Steel Friction—welded Components[J].Materials Characterization,2003 ,49 :421-429.
[4]Kuroda S,Saida K,Nishimoto K. Microstructure andProperties of Directly Bonded Joint of A6061 Alu-minum Alloy to SUS316 Stainless Steel[J],Quart.J. Jpn. Weld Soc. ,1999,17(3):484-489.
[5]Lee W B, Schmuecker M, Mercardo U A, et al. In-terface Reaction in Steel-aluminum Joints Made byFriction Stir Welding[J]_ Scripta Materialia,2006,55:355-358.
[6]Mathieu A,Shabadi R,Deschamps A,et aL Dissimi-lar Material Joining Using Laser( Aluminum to SteelUsing Zinc— based Filler Wire)[J]. Optics LaserTechnology,2007 ,39 :652-661.
[7]林三宝[1],宋建岭[1],杨春利[1],马广超[1].铝合金/不锈钢钨极氩弧熔-钎焊接头界面层的微观结构分析[J].金属学报,2009,45(10):1211-1216.
[8]雷振,秦国梁,林尚扬,等.基于激光一MIG复合热源的5A02铝合金/镀锌钢熔一钎焊[J].机槭工程学报,2009,45(3):94-98.
[9]赵熹华.压力焊[M].北京:机械工业出版社,1996..
[10]Qiu Ranfeng, Iwamoto C, Satonaka S. InterfacialReaction Layer in Resistance Spot Welded Jointbetween Aluminium Alloy and Austenitic Stain-less Steel [J]. Materials Science and Technology,2010,26:243-246.
[11]Murakami Koji,Nishida Norihide, Osamura Kozo,et al. Aluminization of High Purity Iron and Stain-less Steel by Powder Liquid Coating[J]. Acta Ma-terialia, 2004,52 :2173-2184.
[12]Eisazadeh H, Hamedi M, Halvaee A. New Para-metric Study of Nugget Size in Resistance SpotWelding Process Using Finite Element Method[J]. Materials and Design,2010,31 : 149-57.
[13]Oikawa H, Ohmiya S, Yoshimura T, et al. Resist-ance Spot Welding of Steel and Aluminum SheetUsing Insert Metal Sheet [J], Science and Tech-nology of Welding and Joining, 1999.4(2) :80-88.
[14]Satonaka S, Kaieda K, Okamoto S. Prediction ofTensile— shear Strength of Spot Welds Based onFracture Modes[J], Welding in the World, 2004.48(5/6):39-45.
[15]张彦华[1],刘家奇[1],段小雪[1].异种材料连接中的界面力学问题[J].电焊机,2007,37(7):15-17.

Study on Performance of Aluminum Alloy/Stainless Steel Joint Welded by Thermal Compensation Resistance Spot Welding

铝合金与不锈钢热补偿电阻点焊接头性能研究

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