D. Henry, D. Belhachemi, J. Souriau, C. Brunet-Manquat, C. Puget, G. Ponthenier, J. L. Vallejo, C. Lecouvey, N. Sillon
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引用次数: 21
摘要
系统集成显然是包装创新的推动力。对小型化的需求导致了新的体系结构,这些体系结构结合了不同的技术。特别是,当几个晶片必须在一个小封装中连接时,堆叠似乎是最佳解决方案。然而,这种3D封装方法必须满足高互连密度和高数据吞吐量的限制,同时具有良好的信号完整性和可靠性,同时保持低成本。今天,为了执行3D包装,已经开发了几种不同的方法。这些包括基于R. R. Tummala等人(2002)的SiP(系统级封装)、SoC(系统级芯片)或SoP(系统级封装)等技术。CEA-LETI开发了一个异构集成的概念,称为SoW(晶圆上系统),如N. Sillon等人(2005)所述。本文提出了基于晶圆的系统概念(SoW)。为了通过使用SoW执行异构集成,需要一个技术工具箱。该工具箱的重点是硅通孔技术(STV)。然后,介绍了STV的完整技术。对硅通孔的绝缘一致性进行了具体的研究,并给出了研究结果。最后,电气测试结果显示了不同的过孔几何形状
Low electrical resistance silicon through vias: technology and characterization
System integration is clearly a driving force for innovation in packaging. The need for miniaturization has led to new architectures, which combine disparate technologies. In particular, when several die have to be connected in a small package, stacking would appear to be the best solution. However, this 3D packaging approach has to satisfy the constraints of high interconnection density and high data throughput in conjunction with good signal integrity, and reliability while maintaining a low cost. Today, several different approaches have been developed in order to perform 3D packaging. These include technologies like SiP (system in package), SoC (system on chip) or SoP (system on package) based in R. R. Tummala et al. (2002). A concept for heterogeneous integration has been developed by CEA-LETI and is called SoW (system on wafer) as presented in N. Sillon et al. (2005). In this paper, the system on wafer concept (SoW) is presented. In order to perform heterogeneous integration by using the SoW, a technological toolbox is required. This toolbox is presented with a focus on the silicon through vias technology (STV). Then, the complete technology for the STV is presented. A specific study concerning insulation conformity into the silicon through vias has been led and the results that are presented. Finally, electrical tests results are shown for different vias geometries