基于铜柱和C4球的异质介面集成芯片实现ADC应用的高速接口

Michael Dittrich, A. Heinig, Fabian Hopsch, R. Trieb
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引用次数: 7

摘要

硅中间体可以在集成电路(ic)之间实现非常高的路由密度,这些集成电路(ic)采用不同的技术制造,如功率放大器的65nm和最高性能的14nm FinFET。这在片上系统(SoC)中是不可能的。异质硅中间体集成目前在处理器-存储器集成的第一批产品中使用,但在其他应用领域仍然很少使用。本文提出了一种将ADC(例如用SiGe双极技术制造)与现有处理单元(如数字信号处理器(DSP)或现场可编程门阵列(FPGA))集成的方法,该方法使用中介器和用于通信的附加IC。这种方法可以进一步提高从ADC到处理器的数据速率。它还简化了ADC的大而昂贵的接口。本文讨论了该方法的不同选择及其对中介路由的影响。从实际应用出发,推导出中间连接件的布线要求,利用三维有限元工具对连接件进行了模型提取。最后,使用精确的Spice模型对IO单元的互连进行了模拟。
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Heterogeneous Interposer Based Integration of Chips with Copper Pillars and C4 Balls to Achieve High Speed Interfaces for ADC Application
Silicon Interposers enable very high routing density in between integrated circuits (ICs) that are fabricated in different technologies like 65 nm for power amplifiers and 14 nm FinFET for highest performance. This is not possible within a System on Chip (SoC). While heterogeneous silicon interposer integration is now used in the first products for processor-memory-integration, it is still rarely used in other fields of application. This paper proposes an approach to integrate an ADC (e.g. fabricated in SiGe bipolar technology) with an existing processing unit like a digital signal processor (DSP) or a field programmable gate array (FPGA) using an interposer and an additional IC for communication. This approach allows to further increase the data rate from the ADC to the processor. It also simplifies the large and costly interface of the ADC. The paper discusses different options of the approach and their impact to the interposer routing. The requirements for the routing of the interposer interconnections are derived from the application, models of the interconnections are extracted with 3D FEM Tools. Finally the interconnections are simulated using accurate Spice models for the IO cells.
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