用全卷积神经网络重新编码双相全息图

Xingpeng Yan, Xinlei Liu, Jiaqi Li, Hairong Hu, Min Lin, Xi Wang
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引用次数: 0

摘要

在此,我们提出了一种用全卷积神经网络(FCN)对双相位全息图(DPH)进行重新编码的方法,以减轻其中的条纹和空间位移噪声。由于菲涅尔区板不完整,衍射场边缘附近存在许多条纹,DPH 的逐像素编码方法也会导致重建图像中出现上述条纹。此外,从复振幅信息转换为纯相位信息时产生的空间位移噪声也会降低重建质量和清晰度。利用 FCN 强大的非线性拟合能力,所提出的方法可以对 DPH 进行重新编码,从而有效地减轻条纹和消除空间位移噪声。最后,在 0.06 秒内生成了分辨率为 2400 × 4096 的纯相位全息图,其平均重建质量的峰值信噪比(PSNR)为 35.6 dB。光学结果表明,与传统方法相比,建议方法重建的目标图像噪声更小,显示质量更高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Recoding double-phase holograms with the full convolutional neural network
Herein, we proposed a method to recode double-phase holograms (DPHs) with a full convolutional neural network (FCN) for alleviating the fringes and spatial shifting noises in that. There are many fringes near the edge of the diffraction field due to the incomplete Fresnel zone plate, and the pixel-by-pixel encoding method of DPH will cause above fringes to appear in the reconstructed image of that as well. Besides, the spatial shifting noises generated during the conversion from complex-amplitude information to pure-phase information will also decrease the reconstruction quality and definition. Depending on the great nonlinear fitting ability of FCN, the proposed method can recode DPHs, alleviating the fringes and removing the spatial shifting noises effectively. Finally, the phase-only holograms with the resolution 2400 × 4096 have been generated in 0.06 s, which have a peak signal to noise ratio (PSNR) of 35.6 dB in the mean reconstruction quality. Optical results showed that compared with the conventional methods, the target images reconstructed by the proposed method have less noise and a higher display quality.
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