生物图像信息学:生物图像知识提取的挑战

P. Soda
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引用次数: 2

摘要

生物图像信息学是一个快速发展的研究领域,它为旨在促进从图像中提取定量信息的生物学和生物医学研究做出了基础贡献。生物组织标记和显微成像的巨大进步正在从根本上改变生物学家如何观察和研究分子和细胞结构。如今,这些设备可以产生tb级的多维图像,如何从这些图像中自动有效地提取客观知识已成为一个重大挑战。在这份手稿中,我们分析了生物图像信息学的最新技术,特别关注神经科学。我们表明,有越来越多的努力提供方法和软件工具,提供可视化,表示,管理和分析3D多通道图像的功能。然而,它们中的大多数已经应用于MVoxel或少量GVoxel的数据集,其中对比度,照明以及物体形状和尺寸的变化是有限的。因此,新3D图像堆栈的巨大尺寸要求完全自动化的处理方法,其参数应动态适应体积中的不同区域。在这方面,这份手稿在最近的一份贡献中得到了深化,该贡献以数字方式绘制了整个小鼠小脑的浦肯野细胞图,对应于120 GVoxels的图像数据集。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
BioImage Informatics: The challenge of knowledge extraction from biological images
Bioimage Informatics is a rapidly growing research field that is giving fundamental contributions to research in biology and biomedicine aiming at facilitating the extraction of quantitative information from images. Great advances in biological tissue labeling and microscopic imaging are radically changing how biologists visualize and study the molecular and cellular structures. These devices nowadays produce terabyte-sized multi-dimensional images: how to automatically and efficiently extract objective knowledge from such images has become a major challenge. In this manuscript we analyze the state-of-the-art of Bioimage Informatics, with a special focus on neuroscience. We show that there are increasing efforts to deliver methods and software tools providing functionalities for visualization, representation, management and analysis of 3D multichannel images. Nevertheless, most of them have been applied on datasets with size of MVoxel or few GVoxel, where the variations in contrast, illumination, as well as object shape and dimensions are limited. The huge dimensions of new 3D image stacks therefore ask for fully automated processing methods, whose parameters should be dynamically adapted to different regions in the volume. In this respect, this manuscript deepens in a recent contribution that digitally charts the Purkinje cells of whole mouse cerebellum, corresponding to an image dataset of 120 GVoxels.
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