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表面成像显微镜,一种用于在三维空间中以高分辨率可视化整个胚胎样本的自动化方法。

Surface imaging microscopy, an automated method for visualizing whole embryo samples in three dimensions at high resolution.

作者信息

Ewald Andrew J, McBride Helen, Reddington Mark, Fraser Scott E, Kerschmann Russell

机构信息

Biological Imaging Center and Division of Biology, Caltech, Pasadena, California 91125, USA.

出版信息

Dev Dyn. 2002 Nov;225(3):369-75. doi: 10.1002/dvdy.10169.

Abstract

Modern biology is faced with the challenge of understanding the specification, generation, and maintenance of structures ranging from cells and tissues to organs and organisms. By acquiring images directly from the block face of an embedded sample, surface imaging microscopy (SIM) generates high-resolution volumetric images of biological specimens across all of these scales. Surface imaging microscopy expands our range of imaging tools by generating three-dimensional reconstructions of embryo samples at high resolution and high contrast. SIM image quality is not limited by depth or the optical properties of overlying tissue, and intrinsic or extrinsic alignment markers are not required for volume reconstruction. These volumes are highly isotropic, enabling them to be virtually sectioned in any direction without loss of image quality. Surface imaging microscopy provided a more accurate three-dimensional representation of a chick embryo than confocal microscopy of the same sample. SIM offers excellent imaging of embryos from three major vertebrate systems in developmental biology: mouse, chicken, and frog. Immediate applications of this technology are in visualizing and understanding complex morphogenetic events and in making detailed comparisons between normal and genetically modified embryos.

摘要

现代生物学面临着理解从细胞、组织到器官和生物体等各种结构的特化、生成和维持的挑战。通过直接从嵌入样本的块面获取图像,表面成像显微镜(SIM)能够生成跨越所有这些尺度的生物标本的高分辨率体积图像。表面成像显微镜通过以高分辨率和高对比度生成胚胎样本的三维重建,扩展了我们的成像工具范围。SIM图像质量不受深度或覆盖组织光学特性的限制,体积重建也不需要内在或外在的对齐标记。这些体积具有高度各向同性,使其能够在任何方向进行虚拟切片而不损失图像质量。与同一样本的共聚焦显微镜相比,表面成像显微镜提供了更准确的鸡胚胎三维图像。SIM为发育生物学中三个主要脊椎动物系统(小鼠、鸡和青蛙)的胚胎提供了出色的成像。这项技术的直接应用在于可视化和理解复杂的形态发生事件,以及对正常胚胎和转基因胚胎进行详细比较。

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