Development of crack-less and deformation-resistant electroplated Ni/electroless Ni/Pt/Ag metallization layers for Ag-sintered joint during a harsh thermal shock

材料科学 电镀 热冲击 微观结构 复合材料 冶金 变形(气象学) 接头(建筑物) 图层(电子) 基质(水族馆) 结构工程 海洋学 地质学 工程类
作者
Yang Liu,Chuantong Chen,Zheng Zhang,Minoru Ueshima,Takeshi Sakamoto,Takuya Naoe,Hiroshi Nishikawa,Yukinori Oda,Katsuaki Suganuma
出处
期刊:Materials & Design [Elsevier]
卷期号:224: 111389-111389 被引量:15
标识
DOI:10.1016/j.matdes.2022.111389
摘要

Aiming for a suitable die-attached substrate for Ag-sintered joint technology during harsh operating environment, three surface finishes of sputtered Ti/Ag- layers, electroless Ni-/Pt-/Ag- layers, and electroplated Ni-/electroless Ni-/Pt-/Ag- layers were developed to directly bond copper (DBC) substrates, denoted as Ti/Ag, ENPA, and E-ENPA, respectively. The effect of the metallization layers by three deposition technologies on the Ag joint structures was systematically investigated during an extreme thermal shock test (TST) ranging from −50 to 250 °C. The mechanical behaviors and interface evolution considerably varied depending on the metallization layer used. Both ENPA and E-ENPA substrates provided a more robust initial shear strength of approximately 60 MPa. More importantly, both metallization layers were productive in restraining interfacial deformation owing to the effect of the thick Ni plating. A better performance was derived from the electroplated Ni in E-ENPA metallization with crack-less and deformation-resistant, because of electroplated Ni possessed a suitable hardness and toughness, thus the optimal stress-relaxation capability. This study provides insights to the properties of Ag-sintered joints on three metallization layers, where the metallization, mainly by electroplating, exhibited superior reliability beyond that of sputtered and electroless depositions in both strength and microstructure maintenance.
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