Generative Adversarial Network for Data Augmentation in Photonic-based Microwave Frequency Measurement

Md. Asaduzzaman Jabin, Qidi Liu, M. Fok
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Abstract

Deep learning is a powerful tool for enhancing performance and increasing the functionalities of a system. However, it is challenging to use deep learning to enhance hardware-based photonic systems because a large dataset that covers the whole operation range of each device is needed for achieving an accurate model. However, not all devices in a system can be controlled automatically, making the data collection process challenging and time consuming. In this letter, we use an instantaneous microwave frequency measurement (IFM) system to demonstrate the use of generative adversarial network (GAN) in deep learning platform for data augmentation. With GAN, only 75 sets of experimental data are needed to collect manually from the IFM system. The GAN augments the 75 sets of experimental data into 5000 sets of data for training the model, effectively reduces the amount of experimental data needed by 98.75%, and reduces frequency estimation error by 10 times.
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基于光子微波频率测量的数据增强生成对抗网络
深度学习是增强系统性能和增加系统功能的强大工具。然而,使用深度学习来增强基于硬件的光子系统是具有挑战性的,因为需要一个覆盖每个设备整个操作范围的大型数据集来实现准确的模型。然而,并非系统中的所有设备都可以自动控制,这使得数据收集过程具有挑战性且耗时。在这封信中,我们使用瞬时微波频率测量(IFM)系统来演示在深度学习平台中使用生成对抗网络(GAN)进行数据增强。使用GAN,只需要从IFM系统手动收集75组实验数据。GAN将75组实验数据扩充为5000组数据用于训练模型,有效减少了所需实验数据量的98.75%,将频率估计误差降低了10倍。
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