三维封装系统的有效热通和去耦电容插入

E. Wong, J. Minz, S. Lim
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引用次数: 16

摘要

3D系统级封装(SOP)的组件密度增加加剧了热热点问题。缓解热问题的一个流行选择是热通孔(t-通孔),用于建立从SOP包的核心到散热器的热路径。SOP集成的另一个主要问题是构成系统的各种混合信号组件之间的电源噪声耦合。在这种情况下,插入去耦电容器(decaps)来提供局部开关电流。我们的自动3D SOP组件放置算法的目标是确定每个组件的x/y/z位置,同时在热和电源噪声约束下最大限度地减少占地面积。一般来说,t-通孔和头盖通常插入到放置的空白位置,而t-通孔和头盖与目标组件的接近程度决定了它们的有效性。因此,我们的组件放置商在早期设计阶段考虑了t-via和decap插入,其中组件位置可以灵活更改。相关实验证明了该方法的有效性
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effective thermal via and decoupling capacitor insertion for 3D system-on-package
The increased component density of a 3D system-on-package (SOP) exacerbates the thermal hotspot problem. A popular choice to mitigate the thermal issues is thermal vias (t-vias) that are used to establish thermal paths from the core of an SOP package to the heat sinks. Another major problem with SOP integration is the power supply noise coupling among various mixed signal components constituting the system. In this case, decoupling capacitors (decaps) are inserted to provide the switching currents locally. The goal of our automatic 3D SOP component placement algorithm is to determine the x/y/z location of each component while minimizing the footprint area under thermal and power supply noise constraints. In general, t-vias and decaps are typically inserted in the white space in the placement, whereas the proximity of the t-vias and decaps to the target components determines their effectiveness. Hence, our component placer considers t-via and decap insertion during the early design stage, where the component location can be flexibly changed. Related experiments demonstrate the effectiveness of our approach
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