基于非挥发性相变材料的纳米光子互连

Parya Zolfaghari, Joel Ortiz, C. Killian, S. L. Beux
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引用次数: 1

摘要

集成光学是一种很有前途的技术,它利用光的传播来实现许多核心架构中的高吞吐量芯片级互连。纳米光子互连部署的一个关键挑战是它们的高静态功率,这是由信号损耗和器件校准引起的。为了解决这一挑战,我们建议使用相变材料(PCM)来配置写入器和读取器之间的光路。PCM元件的非挥发性和晶体和非晶态之间的高对比度允许绕过未使用的读取器,从而减少损耗和校准要求。我们使用SNIPER多核模拟器进行系统级仿真,评估了所提出的基于pcm的互连的效率。为此,我们修改了模拟器,以便根据执行的应用程序对集群进行分区。仿真结果表明,采用PCM绕过读写器可节省52%的通信功率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Non-Volatile Phase Change Material based Nanophotonic Interconnect
Integrated optics is a promising technology to take advantage of light propagation for high throughput chip-scale interconnects in many core architectures. A key challenge for the deployment of nanophotonic interconnects is their high static power, which is induced by signal losses and devices calibration. To tackle this challenge, we propose to use Phase Change Material (PCM) to configure optical paths between writers and readers. The non-volatility of PCM elements and the high contrast between crystalline and amorphous phase states allow to bypass unused readers, thus reducing losses and calibration requirements. We evaluate the efficiency of the proposed PCM-based interconnects using system level simulations carried out with SNIPER manycore simulator. For this purpose, we have modified the simulator to partition clusters according to executed applications. Simulation results show that bypassing readers using PCM leads up to 52% communication power saving.
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