基于NoC的mpsoc性能增强的跟踪缓冲区重用

Sidhartha Sankar Rout, M. Badri, Sujay Deb
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引用次数: 4

摘要

当前的片上网络(noc)非常复杂,在预硅验证阶段捕获所有网络功能故障几乎是不可能的。因此,提供了诸如跟踪缓冲区之类的片上调试设计(DfD)结构,以帮助在硅后调试期间捕获已转义的错误。调试结束后,大部分DfD模块处于空闲状态。这种结构的重用可以补偿它们带来的面积开销。在这项工作中,跟踪缓冲区在现场执行期间被重新利用为NoC的路由器节点的扩展虚拟通道。跟踪缓冲区在路由器之间的最优分布是基于路由器的负载分析。基于该架构的多个基准测试表明,网络吞吐量平均提高了11.36%,平均延迟降低了13.97%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reutilization of Trace Buffers for Performance Enhancement of NoC based MPSoCs
The contemporary network-on-chips (NoCs) are so complex that capturing all network functional faults at presilicon verification stage is nearly impossible. So, on-chip design-for-debug (DfD) structures such as trace buffers are provided to assist capturing escaped faults during post-silicon debug. Most of the DfD modules are left idle after the debug process. Reuse of such structures can compensate for the area overhead introduced by them. In this work, the trace buffers are reutilized as extended virtual channels for the router nodes of an NoC during in-field execution. Optimal distribution of trace buffers among the routers is performed based upon their load profiling. Experiments with several benchmarks on the proposed architecture show an average of 11.36% increase in network throughput and 13.97% decrease in average delay.
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