光子学和微波的结合提高了计算的灵活性

IF 23.4 Q1 OPTICS
Hongwei Wang, Guangwei Hu
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引用次数: 0

摘要

在人工神经网络中,数据结构通常以向量、矩阵或高维张量的形式存在。然而,传统的电子计算体系结构受到存储与计算分离的瓶颈限制,难以有效地处理大规模张量运算。研究小组开发了一种基于单个微环谐振腔的光子张量处理单元,通过精确调节多波长激光器的工作状态,在时间、波长和微波频率的多个维度上进行张量卷积运算。这一创新设计将光子计算密度提高到34.04 TOPS/mm²,大大超过了现有光子计算芯片的性能水平。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Photonics and microwaves merge to improve computing flexibility

Photonics and microwaves merge to improve computing flexibility

In artificial neural networks, data structures usually exist in the form of vectors, matrices, or higher-dimensional tensors. However, traditional electronic computing architectures are limited by the bottleneck of separation of storage and computing, making it difficult to efficiently handle large-scale tensor operations. The research team has developed a photonic tensor processing unit based on a single microring resonator, which performs tensor convolution operations in multiple dimensions of time, wavelength, and microwave frequency by precisely adjusting the operating state of multi-wavelength lasers. This innovative design increases the photonic computing density to 34.04 TOPS/mm², significantly surpassing the performance level of existing photonic computing chips.

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来源期刊
Light-Science & Applications
Light-Science & Applications 数理科学, 物理学I, 光学, 凝聚态物性 II :电子结构、电学、磁学和光学性质, 无机非金属材料, 无机非金属类光电信息与功能材料, 工程与材料, 信息科学, 光学和光电子学, 光学和光电子材料, 非线性光学与量子光学
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803
审稿时长
2.1 months
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