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使用双光子荧光显微光学切片断层成像技术对脑回路进行可视化。

Visualization of brain circuits using two-photon fluorescence micro-optical sectioning tomography.

作者信息

Zheng Ting, Yang Zhongqing, Li Anan, Lv Xiaohua, Zhou Zhenqiao, Wang Xiaojun, Qi Xiaoli, Li Shiwei, Luo Qingming, Gong Hui, Zeng Shaoqun

机构信息

Britton Chance Center for Biomedical Photonics, Huazhong University of Science and Technology-Wuhan National Laboratory for Optoelectronics, Wuhan 430074, China.

出版信息

Opt Express. 2013 Apr 22;21(8):9839-50. doi: 10.1364/OE.21.009839.

Abstract

Neural circuits are fundamental for brain functions. However, obtaining long range continuous projections of neurons in the entire brain is still challenging. Here a two-photon fluorescence micro-optical sectioning tomography (2p-fMOST) method is developed for high-throughput, high-resolution visualization of the brain circuits. Two-photon imaging technology is used to obtain high resolution, and acoustical optical deflector (AOD), an inertia-free beam scanner is used to realize fast and prolonged stable imaging. The combination of these techniques with imaging and then sectioning method of a plastic-embedded mouse brain facilitated the acquisition of a three-dimensional data set of a fluorescent mouse brain with a resolution adequate to resolve the spines. In addition, the brain circuit tracing ability is showed by several neurons projecting across different brain regions. Besides brain imaging, 2p-fMOST could be used in many studies that requires sub-micro resolution or micro resolution imaging of a large sample.

摘要

神经回路是大脑功能的基础。然而,在整个大脑中获得神经元的长程连续投射仍然具有挑战性。在此,开发了一种双光子荧光显微光学切片断层扫描(2p-fMOST)方法,用于高通量、高分辨率地可视化脑回路。双光子成像技术用于获得高分辨率,而声光偏转器(AOD),一种无惯性光束扫描仪,用于实现快速且长时间的稳定成像。这些技术与塑料包埋小鼠脑的成像然后切片方法相结合,有助于获取具有足以分辨棘突的分辨率的荧光小鼠脑三维数据集。此外,几个跨不同脑区投射的神经元展示了脑回路追踪能力。除了脑成像外,2p-fMOST可用于许多需要对大样本进行亚微米分辨率或微米分辨率成像的研究。

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