利用集成光子学推动嵌入式微处理器的突破

D. Bertozzi, S. Rumley
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摘要

本教程旨在通过开发芯片级集成光子技术来解决电子通信链路的限制,以实现片内和片外的无缝光子通信,以低能量/比特提供所需的带宽。这项新兴技术将利用波分复用(WDM),允许每个链路的带宽容量更高,这对于满足未来微处理器的通信需求是必不可少的。这种能力将推动微处理器进入一个新的性能轨道,并影响耗电的嵌入式应用程序和超级计算相关计算任务的实际运行时性能。实现光互连技术的挑战是开发CMOS和dram兼容的光子链路,这些光子链路具有频谱宽,以非常低的功耗以高比特率运行,并且与电子驱动器紧密集成。最终,本教程的目标是演示可以集成在嵌入式微处理器内的光子技术,并实现微处理器和DRAM内部和之间的无缝,节能,高容量通信。预计光学互连技术将特别适用于那些需要低尺寸、低重量和低功耗的平台(例如无人机和卫星)。
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Propelling breakthrough embedded microprocessors by means of integrated photonics
The tutorial aims to address electrical communications link limitations by developing chipscale, integrated photonic technology to enable seamless intrachip and off-chip photonic communications that provide the required bandwidth with low energy/bit. The emerging technology will exploit wavelength division multiplexing (WDM), allowing much higher bandwidth capacity per link, which is imperative to meeting the communication needs of future microprocessors. Such a capability would propel the microprocessor onto a new performance trajectory and impact the actual runtime performance of relevant computing tasks for power-starved embedded applications and supercomputing. The challenges in realizing optical interconnect technology are developing CMOS and DRAM-compatible photonic links that are spectrally broad, operate at high bit-rates with very low power dissipation, and are tightly integrated with electronic drivers. Ultimately, the goal of this tutorial is to demonstrate photonic technologies that can be integrated within embedded microprocessors and enable seamless, energy-efficient, high-capacity communications within and between the microprocessor and DRAM. It is envisioned that optical interconnect technology will be especially useful for those platforms where extreme performance coupled with low size, weight, and power is a necessity (e.g. UAVs, and satellites).
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