加速
光子晶体
光子学
情态动词
计算机科学
趋同(经济学)
纳米光子学
深度学习
过程(计算)
体积热力学
因子(编程语言)
Q系数
材料科学
光电子学
电子工程
人工智能
工程类
谐振器
物理
并行计算
量子力学
经济
高分子化学
操作系统
程序设计语言
经济增长
作者
Renjie Li,Xiaozhe Gu,Ke Li,Zhen Li,Zhaoyu Zhang
摘要
A Deep Learning (DL) based forward modeling approach has been proposed to accurately characterize the relationship between design parameters and the optical properties of Photonic Crystal (PC) nanocavities. The demonstrated DNN model makes predictions not only for the Q factor but also for the modal volume V for the first time, granting us precise control over both properties in the design process. The experimental results show that the DNN has achieved a state-of-the-art performance in terms of prediction accuracy (up to 99.9999% for Q and 99.9890% for V ) and convergence speed (i.e., orders-of-magnitude speedup). The proposed approach overcomes shortcomings of existing methods and paves the way for DL-based on-demand and data-driven optimization of PC nanocavities applicable to the rapid prototyping of nanoscale lasers and integrated photonic devices of high Q and small V .
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