打开光子学数据效率和逆向设计的黑箱

R. Pestourie, Steven G. Johnson
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引用次数: 0

摘要

监督神经网络由于其通用性强、评估速度快、易微分且在高维问题中表现良好,正逐渐成为光子学中替代模型的首选算法。然而,这种黑盒方法的缺点是它需要大量的数据。不幸的是,在光子学的背景下,数据是通过昂贵的麦克斯韦方程组的全解产生的。本讲座将介绍如何打开黑匣子,以提高深度代理模型的数据效率和性能。本演讲的第一部分将介绍主动学习如何通过使数据生成适应模型学习来减少至少一个数量级的数据需求。第二部分将介绍如何将物理信息整合到神经网络中以提高效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Opening the black box for data efficiency and inverse design in photonics
Supervised neural networks are rising as an algorithm of choice for surrogate models in photonics, because they are versatile, fast to evaluate, easily differentiable, and perform well in high-dimensional problems. However, the drawback of this black box approach is that it requires a lot of data. Unfortunately in the context of photonics, data is generated through expensive full solves of Maxwell’s equations. This talk will present ways to open the black box for better data efficiency and performance of deep surrogate models. The first part of this talk will present how active learning can reduce the need for data by at least an order of magnitude by adapting the data generation to the model learning. The second part will present how information about the physics can be incorporated into the neural network for more efficiency.
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