使用混合极性比特流的相变材料光子学中的符号卷积

Raphael Cardoso, Clément Zrounba, M.F. Abdalla, Paul Jiménez, Mauricio Gomes de Queiroz, B. Charbonnier, Fabio Pavanello, Ian O'Connor, S. L. Beux
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引用次数: 0

摘要

随着人工智能的重要性与日俱增,为了减少其碳足迹和计算机资源的使用,人们正在研究许多替代方案,以改进其硬件构件。特别是在卷积神经网络(CNN)中,卷积函数是最重要的操作,也是最佳优化目标之一。最近出现了一种利用光学、相变材料(PCM)和随机计算进行卷积的新方法,但迄今为止仅限于无符号操作数。在本文中,我们提出了一种使用混合极性比特流对卷积核进行带符号扩展的方法。我们提出了我们方法的有效性证明,同时还表明,在模拟和类似的操作条件下,我们的方法比文献中的常见方法受噪声的影响更小。
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Signed Convolution in Photonics with Phase-Change Materials using Mixed-Polarity Bitstreams
As AI continues to grow in importance, in order to reduce its carbon footprint and utilization of computer resources, numerous alternatives are under investigation to improve its hardware building blocks. In particular, in convolutional neural networks (CNNs), the convolution function represents the most important operation and one of the best targets for optimization. A new approach to convolution had recently emerged using optics, phase-change materials (PCMs) and stochastic computing, but is thus far limited to unsigned operands. In this paper, we propose an extension in which the convolutional kernels are signed, using mixed-polarity bitstreams. We present a proof of validity for our method, while also showing that, in simulation and under similar operating conditions, our approach is less affected by noise than the common approach in the literature.
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