多核微处理器和主存储器通过2.5D TSI I/ o热弹性集成

Sih-Sian Wu, Kanwen Wang, Sai Manoj Pudukotai Dinakarrao, Tsung-Yi Ho, Mingbin Yu, Hao Yu
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引用次数: 16

摘要

本文开发了一个存储逻辑集成设计平台,并为基于2.5D通硅介孔(TSI)和基于3D通硅通孔(TSV)的集成提供了热可靠性分析。温度相关的延迟和功耗模型已经分别在多核微处理器和主存的2.5D和3D集成的微架构级别上开发出来。实验是通过SPEC CPU2006的通用基准测试和Phoenix的面向云的基准测试进行的,观察结果如下。通过3D rc互连的TSV I/ o进行存储逻辑集成,由于强电-热耦合,可能导致热失控故障。另一方面,由2.5D传输线互连的TSI I/ o显示出几乎相同的能源效率和更好的热弹性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A thermal resilient integration of many-core microprocessors and main memory by 2.5D TSI I/Os
One memory-logic-integration design platform is developed in this paper with thermal reliability analysis provided for 2.5D through-silicon-interposer (TSI) and 3D through-silicon-via (TSV) based integrations. Temperature-dependent delay and power models have been developed at microarchitecture level for 2.5D and 3D integrations of many-core microprocessors and main memory, respectively. Experiments are performed by general-purpose benchmarks from SPEC CPU2006 and also cloud-oriented benchmarks from Phoenix with the following observations. The memory-logic integration by 3D RC-interconnected TSV I/Os can result in thermal runaway failures due to strong electrical-thermal couplings. On the other hand, the one by 2.5D transmission-line-interconnected TSI I/Os has shown almost the same energy efficiency and better thermal resilience.
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