预测编码压缩传感光学相干断层扫描硬件实现。

IF 2.9 2区 医学 Q2 BIOCHEMICAL RESEARCH METHODS Biomedical optics express Pub Date : 2024-10-29 eCollection Date: 2024-11-01 DOI:10.1364/BOE.541685
Diego M Song Cho, Haiqiu Yang, Zizheng Jia, Arielle S Joasil, Xinran Gao, Christine P Hendon
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引用次数: 0

摘要

压缩传感(CS)是一种通过缩短成像时间和降低数据密度来实现综合成像的方法,也是一种能够实现远低于奈奎斯特采样率的欠采样并保证高精度图像复原的理论。之前的文献主要集中在演示压缩传感实现的合成欠采样和重建。在本文中,我们首次利用基于振镜的 OCT 系统演示了基于硬件的物理奈奎斯特以下采样,并通过压缩传感实现了后续重建。获取的各种样本图像的体积扫描时间缩短了 89%(压缩率为 12.5%),并成功地重建了图像,相对误差 (RE) 小于 20%,均方误差 (MSE) 约为 1%。
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Predictive coding compressive sensing optical coherence tomography hardware implementation.

Compressed sensing (CS) is an approach that enables comprehensive imaging by reducing both imaging time and data density, and is a theory that enables undersampling far below the Nyquist sampling rate and guarantees high-accuracy image recovery. Prior efforts in the literature have focused on demonstrations of synthetic undersampling and reconstructions enabled by compressed sensing. In this paper, we demonstrate the first physical, hardware-based sub-Nyquist sampling with a galvanometer-based OCT system with subsequent reconstruction enabled by compressed sensing. Acquired images of a variety of samples, with volume scanning time reduced by 89% (12.5% compression rate), were successfully reconstructed with relative error (RE) of less than 20% and mean square error (MSE) of around 1%.

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来源期刊
Biomedical optics express
Biomedical optics express BIOCHEMICAL RESEARCH METHODS-OPTICS
CiteScore
6.80
自引率
11.80%
发文量
633
审稿时长
1 months
期刊介绍: The journal''s scope encompasses fundamental research, technology development, biomedical studies and clinical applications. BOEx focuses on the leading edge topics in the field, including: Tissue optics and spectroscopy Novel microscopies Optical coherence tomography Diffuse and fluorescence tomography Photoacoustic and multimodal imaging Molecular imaging and therapies Nanophotonic biosensing Optical biophysics/photobiology Microfluidic optical devices Vision research.
期刊最新文献
Super resolution reconstruction of fluorescence microscopy images by a convolutional network with physical priors. Physics-guided deep learning-based real-time image reconstruction of Fourier-domain optical coherence tomography. On bench evaluation of intraocular lenses: performance of a commercial interferometer. Predictive coding compressive sensing optical coherence tomography hardware implementation. Development of silicone-based phantoms for biomedical optics from 400 to 1550 nm.
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