The future of electrical I/O for microprocessors

F. O’Mahony, G. Balamurugan, J. Jaussi, J. Kennedy, M. Mansuri, S. Shekhar, B. Casper
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引用次数: 43

Abstract

High-speed CMOS microprocessor I/O has scaled aggressively over the past decade in terms of power and performance largely due to advances in equalization and clocking techniques. With future multi-core processors expected to require ≫1TB/s bandwidth and dramatically improved power efficiency, there has been some question as to whether electrical I/O will continue to satisfy chip-to-chip communication requirements over the next decade. In this paper, we show that electrical signaling has the power, performance, and density scaling potential to enable the next several generations of systems and applications. Circuit innovation is aggressively pushing link power efficiency toward 1–2mW/Gb/s while departures from legacy channels to include new topologies and materials can significantly improve the power/performance/density tradeoff. Statistical link-level design tools that allow designers to rapidly quantify high-level architecture tradeoffs will enable balanced link designs that co-optimize power, performance, and channel topology.
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微处理器电子I/O的未来
高速CMOS微处理器I/O在过去十年中在功率和性能方面取得了巨大的进步,这主要是由于均衡和时钟技术的进步。由于未来的多核处理器预计需要1TB/s的带宽和显著提高的功率效率,因此在未来十年中,电子I/O是否会继续满足芯片对芯片的通信需求一直存在一些问题。在本文中,我们表明电信号具有功率,性能和密度缩放潜力,可以实现下一代系统和应用。电路创新正在积极推动链路功率效率达到1-2mW /Gb/s,而从传统通道转向包括新拓扑和材料可以显着改善功率/性能/密度权衡。统计链路级设计工具允许设计人员快速量化高级架构权衡,从而实现平衡的链路设计,共同优化功率、性能和通道拓扑。
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