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具有多狭缝检测功能的高通量线照明拉曼显微镜。

High-throughput line-illumination Raman microscopy with multislit detection.

作者信息

Mochizuki Kentaro, Kumamoto Yasuaki, Maeda Shunsuke, Tanuma Masato, Kasai Atsushi, Takemura Masashi, Harada Yoshinori, Hashimoto Hitoshi, Tanaka Hideo, Smith Nicholas Isaac, Fujita Katsumasa

机构信息

Department of Applied Physics, Osaka University, Suita, Osaka 565-0871, Japan.

Department of Pathology and Cell Regulation, Kyoto Prefectural University of Medicine, Kamigyo-ku, Kyoto 602-8566, Japan.

出版信息

Biomed Opt Express. 2023 Feb 7;14(3):1015-1026. doi: 10.1364/BOE.480611. eCollection 2023 Mar 1.

Abstract

Raman microscopy is an emerging tool for molecular imaging and analysis of living samples. Use of Raman microscopy in life sciences is, however, still limited because of its slow measurement speed for spectral imaging and analysis. We developed a multiline-illumination Raman microscope to achieve ultrafast Raman spectral imaging. A spectrophotometer equipped with a periodic array of confocal slits detects Raman spectra from a sample irradiated by multiple line illuminations. A comb-like Raman hyperspectral image is formed on a two-dimensional detector in the spectrophotometer, and a hyperspectral Raman image is acquired by scanning the sample with multiline illumination array. By irradiating a sample with 21 simultaneous illumination lines, we achieved high-throughput Raman hyperspectral imaging of mouse brain tissue, acquiring 1108800 spectra in 11.4 min. We also measured mouse kidney and liver tissue as well as conducted label-free live-cell molecular imaging. The ultrafast Raman hyperspectral imaging enabled by the presented technique will expand the possible applications of Raman microscopy in biological and medical fields.

摘要

拉曼显微镜是一种用于对活体样本进行分子成像和分析的新兴工具。然而,由于其光谱成像和分析的测量速度较慢,拉曼显微镜在生命科学中的应用仍然有限。我们开发了一种多线照明拉曼显微镜,以实现超快拉曼光谱成像。配备共焦狭缝周期性阵列的分光光度计可检测来自多个线照明照射的样本的拉曼光谱。在分光光度计的二维探测器上形成梳状拉曼高光谱图像,并通过用多线照明阵列扫描样本获取高光谱拉曼图像。通过用21条同时照明线照射样本,我们实现了对小鼠脑组织的高通量拉曼高光谱成像,在11.4分钟内获取了1108800个光谱。我们还测量了小鼠肾脏和肝脏组织,并进行了无标记活细胞分子成像。所提出的技术实现的超快拉曼高光谱成像将扩展拉曼显微镜在生物和医学领域的可能应用。

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