Accurate Evaluation of Cascaded Four-wave Mixing Products Generation in Fiber with Optical Feedback Based on Multilayer Perceptron

Jin Wen, Wei Sun, Weijun Qin, Chenyao He, Keyu Xiong, Bozhi Liang
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Abstract

The introduction of optical feedback mechanism enhances the cascaded four-wave mixing (CFWM) effect in high nonlinear fiber, and the machine learning algorithm is used to optimize and predict the bandwidth and number of the CFWM products through controlling parameters in high nonlinear fiber, such as fiber length, pump power and feedback coefficient. Compared with the single pass situation, the results show that the bandwidth is increased to 300 nm with up to 41 products, and the products number is also improved by introducing optical feedback strategy. The comparison between the simulation results and machine learning results demonstrated that the neural network model has the potential for analyzing and predicting the CFWM products in the high nonlinear fiber with a feedback system. The model is characterized by MSE below 0.01 and improves the time efficiency by 81.9%. This research can pave the way for realizing cross-over studies bridge between nonlinear fiber optics and machining learning.
基于多层感知器的光纤级联四波混频产物的精确评价
引入光反馈机制增强了高非线性光纤中的级联四波混频(CFWM)效应,并利用机器学习算法通过控制高非线性光纤中的光纤长度、泵浦功率和反馈系数等参数来优化和预测CFWM产品的带宽和数量。结果表明,通过引入光反馈策略,可将带宽提高到300 nm,最多可容纳41个产品,并且产品数量也有所增加。仿真结果与机器学习结果的比较表明,该神经网络模型具有分析和预测高非线性光纤中带有反馈系统的CFWM产品的潜力。该模型的MSE小于0.01,时间效率提高了81.9%。该研究为实现非线性光纤与加工学习之间的交叉研究桥梁铺平了道路。
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