sn3.5 ag基无铅钎料的塑性变形演化

F. Gao, T. Takemoto
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引用次数: 3

摘要

在Sn3.5Ag钎料基体中掺入少量添加剂0.2Co + 0.1Ni,被认为是取代传统Sn-Pb钎料的最有希望的候选材料之一。通过纳米压痕测试测得的力-渗透曲线来评价无铅焊料的力学性能。然后将这些机械性能用作基于Dao方法的模拟中的输入参数。同时,采用变拉伸速度法确定了无铅焊料在本构模型中的速率灵敏度值sigma = middopesivdot。两种焊料的蠕变都是加载速率的函数。Sn3.5Ag0.2Co0.1Ni钎料在停留时间内的蠕变变形行为比Sn3.5Ag钎料更为严重。Sn3.5Ag0.2Co0.1Ni焊料堆积现象更为显著。压痕下的塑性变形模拟结果表明,两种焊料的最大塑性变形都在压痕尖端下方。Sn3.5Ag的塑性变形区略大
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The evolution of plastic deformation of Sn3.5Ag-based lead-free solders
Small amount of additives, namely, 0.2Co + 0.1Ni, were doped into the Sn3.5Ag solder matrix which has been considered as one of the most promising candidates to replace the conventional Sn-Pb solders. The mechanical properties of the lead-free solders were assessed from the force-penetration curves measured by nanoindentation testing. These mechanical properties were then used as the input parameters in the simulation based on the Dao's method. In the meantime, the rate sensitivity value in the constitutive model, say sigma = Amiddotepsivdotm for the lead-free solders were also determined by the variable tensile speed methodology. The creep deformation of both solders is the function of the loading rate. The creep deformation behavior during nanoindentation testing at dwell time for Sn3.5Ag0.2Co0.1Ni solder seemed more severe than that for Sn3.5Ag solder. The pile-up phenomenon was more remarkable for Sn3.5Ag0.2Co0.1Ni solder. The simulated plastic deformation under indentation showed that the greatest plastic deformation was beneath the indentation tips for both of the solders. And the plastic deformation zone for Sn3.5Ag was slightly greater
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