生物成像的知识表示与数据挖掘。

Wamiq M Ahmed
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引用次数: 0

摘要

生物和制药研究在很大程度上依赖于显微镜成像细胞群来了解它们的结构和功能。在生物图像的自动分析方面已经做了很多工作,但图像分析工具通常只关注于提取定量信息以验证特定假设。图像包含的信息比通常测试单个假设所需的信息多得多。缺乏用于表示语义图像信息的符号知识表示方案和缺乏知识挖掘工具是利用这些图像的全部信息内容的最大障碍。在本文中,我们首先提出了一种基于图的方案,用于在空间、光谱和时间维度上获取的细胞图像中包含的语义生物学知识的集成表示。然后,我们提出了一个时空知识挖掘框架,用于从图像数据集中提取非平凡和先前未知的关联规则。这种机制可以将生物成像的作用从验证假设的工具转变为自动生成新假设的工具。细胞凋亡筛选的结果也被提出。
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Knowledge representation and data mining for biological imaging.

Biological and pharmaceutical research relies heavily on microscopically imaging cell populations for understanding their structure and function. Much work has been done on automated analysis of biological images, but image analysis tools are generally focused only on extracting quantitative information for validating a particular hypothesis. Images contain much more information than is normally required for testing individual hypotheses. The lack of symbolic knowledge representation schemes for representing semantic image information and the absence of knowledge mining tools are the biggest obstacles in utilizing the full information content of these images. In this paper we first present a graph-based scheme for integrated representation of semantic biological knowledge contained in cellular images acquired in spatial, spectral, and temporal dimensions. We then present a spatio-temporal knowledge mining framework for extracting non-trivial and previously unknown association rules from image data sets. This mechanism can change the role of biological imaging from a tool used to validate hypotheses to one used for automatically generating new hypotheses. Results for an apoptosis screen are also presented.

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