扇出芯片基板器件互连可靠性分析

Ying-Chih Lee, W. Lai, Ian Hu, M. Shih, C. Kao, D. Tarng, C. Hung
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引用次数: 21

摘要

基板上的扇出芯片是封装集成的扇出解决方案之一。该解决方案使模具之间的互连时间短,具有优异的电气性能。基板上的扇出芯片在多模连接中提供了优异的电气性能。为了满足高密度电子连接的需要,在衬底器件上预先实现多模FO芯片的多重分布层(RDL)加工。而对于复杂的功能要求,并排硅片的面积尺寸非常接近FO多模芯片的尺寸,并排硅片之间的模隙很小。环氧树脂模塑复合材料(EMC)与硅模之间较大的热膨胀系数(CTE)失配是造成翘曲的重要原因,并会在窄模间隙处导致较高的热机械应变和应力。再分布层在狭窄的并排模隙区存在较高的热-机械应力,可能是高应力危险部位。本研究采用有限元法(FEM)建立了扇形芯片基板封装的数值模拟模型,并利用先进的Metrology Analyzer (aMA)系统获得了模拟结果与实际封装测量结果之间良好的翘曲变形和热-机械应变相关性。然后利用该等效数值模型比较了不同再分布层模式设计下的热力学性能。最后,推广再分布层图案设计准则,提高扇出芯片在基板封装上的封装级可靠性性能,特别是在温度循环测试(TCT)条件下的可靠性性能。新的重分布层网布可通过1000次温度循环试验,重分布层应力风险较低。
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Fan-Out Chip on Substrate Device Interconnection Reliability Analysis
Fan-Out (FO) chip on substrate is one of the fan-out solution for package integration. This solution brings the short interconnection between die to die for excellent electrical performance. Fan-Out chip on substrate device provides excellent electrical performance in multi-die connection,. The multiple re-distribution layer (RDL) processing is implemented in advance multi-dies FO chip on substrate device for die to die connection meeting higher density electronic connection need. And for complex function request, the area of side-by-side silicon dies size are very close to FO multi-dies chip size, there is narrow die gap between these side-by-side dies. A large coefficient of thermal expansion (CTE) mismatch between epoxy molding compound (EMC) and silicon dies is a significant contributor to the origin of warpage, and will lead to high thermal-mechanical strain and stress at narrow area of side-by-side die gap. The redistribution layer could be high stress risk site by the high thermal-mechanical stress on narrow side-by-side dies gap area. This study is to build a fan-out chip on substrate package numerical simulation model by finite element method (FEM) and get good warpage and thermal-mechanical strain correlation between simulation and real package measurement result by advance Metrology Analyzer (aMA) system. Then we used this equivalent numerical model to compare the thermal-mechanical performance for different redistribution layer pattern design. Finally, generalizing the redistribution layer pattern design guideline and to enhance the package level reliability performance, especially under temperature cycling test (TCT) condition, of fan-out chip on substrate package. The new redistribution layer pattern layout can pass 1000 temperature cycling test cycles and there is lower stress risk on redistribution layer.
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