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基于负差分电阻的 CMOS 兼容光电 SRAM 腔器件。

CMOS-compatible electro-optical SRAM cavity device based on negative differential resistance.

机构信息

Department of Applied Physics, Faculty of Science, The Center for Nanoscience and Nanotechnology, The Hebrew University of Jerusalem, Jerusalem 91904, Israel.

出版信息

Sci Adv. 2023 Apr 14;9(15):eadf5589. doi: 10.1126/sciadv.adf5589. Epub 2023 Apr 12.

Abstract

The impending collapse of Moore-like growth of computational power has spurred the development of alternative computing architectures, such as optical or electro-optical computing. However, many of the current demonstrations in literature are not compatible with the dominant complementary metal-oxide semiconductor (CMOS) technology used in large-scale manufacturing today. Here, inspired by the famous Esaki diode demonstrating negative differential resistance (NDR), we show a fully CMOS-compatible electro-optical memory device, based on a new type of NDR diode. This new diode is based on a horizontal PN junction in silicon with a unique layout providing the NDR feature, and we show how it can easily be implemented into a photonic micro-ring resonator to enable a bistable device with a fully optical readout in the telecom regime. Our result is an important stepping stone on the way to new nonlinear electro-optic and neuromorphic computing structures based on this new NDR diode.

摘要

摩尔定律所预示的计算能力增长即将崩溃,这促使人们开发替代计算架构,例如光或电光计算。然而,目前文献中的许多演示都与当今大规模制造中使用的主流互补金属氧化物半导体 (CMOS) 技术不兼容。在这里,受著名的 Esaki 二极管展示负微分电阻 (NDR) 的启发,我们展示了一种完全与 CMOS 兼容的电光存储器件,它基于一种新型的 NDR 二极管。这种新的二极管基于硅中的水平 PN 结,具有独特的布局,提供了 NDR 特性,我们展示了如何将其轻松地集成到光子微环谐振器中,从而实现具有全光读取功能的双稳器件在电信领域。我们的结果是基于这种新型 NDR 二极管的新型非线性电光和神经形态计算结构的重要里程碑。

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