Energy efficient on-chip wireless interconnects with sleepy transceivers

H. Mondal, Sujay Deb
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引用次数: 12

Abstract

Both industry and academia has accepted Networks-on-Chip (NoCs) as the communication backbone for multi-core Systems-on-Chip (SoCs). But the traditional approach of implementing a NoC with planar metal interconnects has high latency and significant power consumption overhead. This is due to multi-hop links used in data exchange, specifically when the number of cores is significantly high. To address these problems multi-hop wire interconnects in a NoC can be replaced with high-bandwidth single-hop long-range wireless links. This opens up new opportunities for detailed investigations into the energy efficient design of wireless NoCs using suitable on-chip wireless transceivers. Wireless transceivers with power gating can significantly improve the energy efficiency of the interconnection network. In this paper we have implemented and evaluated sleep transistor based power-gated transceiver for low power on-chip wireless interconnects. This approach improved power saving for wireless communication up to 70% compared to existing wireless NoC. The transceiver consumes 36.8771 mA current while on and less than 9 nA while in sleep mode from 1 V power supply. The delay associated with this wireless transceiver is less than 10 ps.
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节能的片上无线互连与休眠收发器
业界和学术界都已接受片上网络(noc)作为多核片上系统(soc)的通信骨干。但采用平面金属互连实现NoC的传统方法具有高延迟和显著的功耗开销。这是由于数据交换中使用了多跳链路,特别是当核心数量非常高时。为了解决这些问题,NoC中的多跳线互连可以用高带宽单跳远程无线链路代替。这为使用合适的片上无线收发器进行无线noc节能设计的详细研究开辟了新的机会。采用功率门控的无线收发器可以显著提高互联网络的能源效率。在本文中,我们实现并评估了基于睡眠晶体管的功率门控收发器,用于低功耗片上无线互连。与现有的无线NoC相比,这种方法将无线通信的功耗节省了70%。收发器在通电时电流为36.8771 mA,在1v电源的休眠模式下电流小于9 nA。与此无线收发器相关的延迟小于10ps。
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