风筝:通过精确互连建模实现的异构中间层拓扑

Srikant Bharadwaj, Jieming Yin, Bradford M. Beckmann, T. Krishna
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引用次数: 26

摘要

最近在模堆和2.5D芯片集成技术方面的进展引入了封装内网络异构性,这可能使互连设计复杂化。在硅中间层上集成小芯片为优化中间层拓扑提供了新的机会。然而,受限于现有的片上网络(NoC)模拟器的能力,基于中间体的NoC的全部潜力尚未得到开发。在本文中,我们解决了先前NoC设计的不足,并提出了一种新的称为Kite的芯片拓扑系列。风筝拓扑更好地利用了新的中介系统中存在的各种网络和频域,并且优于先前的小片拓扑方案。与Double Butterfly和Butter Donut相比,Kite将合成流量延迟降低了7%,最大吞吐量平均提高了17%,而Double Butterfly和Butter Donut是之前两种使用不太精确建模的方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Kite: A Family of Heterogeneous Interposer Topologies Enabled via Accurate Interconnect Modeling
Recent advances in die-stacking and 2.5D chip integration technologies introduce in-package network heterogeneities that can complicate the interconnect design. Integrating chiplets over a silicon interposer offers new opportunities of optimizing interposer topologies. However, limited by the capability of existing network-on-chip (NoC) simulators, the full potential of the interposer-based NoCs has not been exploited. In this paper, we address the shortfalls of prior NoC designs and present a new family of chiplet topologies called Kite. Kite topologies better utilize the diverse networking and frequency domains existing in new interposer systems and outperform the prior chiplet topology proposals. Kite decreased synthetic traffic latency by 7% and improved the maximum throughput by 17% on average versus Double Butterfly and Butter Donut, two previous proposals developed using less accurate modeling.
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