适用于极端环境的紧凑型永恒衍射神经网络芯片

Yibo Dong, Dajun Lin, Long Chen, Baoli Li, Xi Chen, Qiming Zhang, Haitao Luan, Xinyuan Fang, Min Gu
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引用次数: 0

摘要

极端环境下的人工智能应用对硬件的鲁棒性、功耗和速度提出了很高的要求。最近,衍射神经网络在高吞吐量光速推理方面表现出了卓越的优势。然而,现有衍射神经网络的鲁棒性和寿命无法保证,严重限制了其紧凑性和长期推理的准确性。在此,我们开发了一种毫米级、坚固耐用的双层集成衍射神经网络芯片,其使用寿命几乎不受限制,可用于光推理。我们在石英晶片的两面刻上了具有二进制相位调制的两个衍射层。演示了手写数字识别的光学推理。结果表明,该芯片对十种数字的识别准确率达到 82%。此外,该芯片在高温条件下表现出高性能稳定性。室温寿命估计为 1.84×1023 万亿年。我们的芯片满足了对衍射神经网络硬件高鲁棒性的要求,使其适用于极端环境。董一波等人实现了一种紧凑而坚固的衍射神经网络芯片,其光学推理的寿命几乎是无限的。该芯片即使在高温老化后仍具有高精度和高稳定性,可用于极端环境。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Compact eternal diffractive neural network chip for extreme environments

Compact eternal diffractive neural network chip for extreme environments
Artificial intelligence applications in extreme environments place high demands on hardware robustness, power consumption, and speed. Recently, diffractive neural networks have demonstrated superb advantages in high-throughput light-speed reasoning. However, the robustness and lifetime of existing diffractive neural networks cannot be guaranteed, severely limiting their compactness and long-term inference accuracy. Here, we have developed a millimeter-scale and robust bilayer-integrated diffractive neural network chip with virtually unlimited lifetime for optical inference. The two diffractive layers with binary phase modulation were engraved on both sides of a quartz wafer. Optical inference of handwritten digital recognition was demonstrated. The results showed that the chip achieved 82% recognition accuracy for ten types of digits. Moreover, the chip demonstrated high-performance stability at high temperatures. The room-temperature lifetime was estimated to be 1.84×1023 trillion years. Our chip satisfies the requirements for diffractive neural network hardware with high robustness, making it suitable for use in extreme environments. Yibo Dong et al. implement a compact and robust diffractive neural network chip with a virtually unlimited lifetime for optical inference. The chip demonstrates high accuracy and high stability even after high temperature aging, aiming at applications in extreme environments.
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