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CellBoost:一种用于神经解剖学中机器辅助注释的流程。

CellBoost: A pipeline for machine assisted annotation in neuroanatomy.

作者信息

Qian Kui, Friedman Beth, Takatoh Jun, Groisman Alexander, Wang Fan, Kleinfeld David, Freund Yoav

机构信息

Department of Electrical and Computer Engineering, University of California, San Diego, La Jolla, CA 92093, USA.

Department of Computer Science and Engineering, University of California, San Diego, La Jolla, CA 92093, USA.

出版信息

AI Open. 2024;5:142-154. doi: 10.1016/j.aiopen.2024.09.001. Epub 2024 Sep 13.

Abstract

One of the important yet labor intensive tasks in neuroanatomy is the identification of select populations of cells. Current high-throughput techniques enable marking cells with histochemical fluorescent molecules as well as through the genetic expression of fluorescent proteins. Modern scanning microscopes allow high resolution multi-channel imaging of the mechanically or optically sectioned brain with thousands of marked cells per square millimeter. Manual identification of all marked cells is prohibitively time consuming. At the same time, simple segmentation algorithms suffer from high error rates and sensitivity to variation in fluorescent intensity and spatial distribution. We present a methodology that combines human judgement and machine learning that serves to significantly reduce the labor of the anatomist while improving the consistency of the annotation. As a demonstration, we analyzed murine brains with marked premotor neurons in the brainstem. We compared the error rate of our method to the disagreement rate among human anatomists. This comparison shows that our method can reduce the time to annotate by as much as ten-fold without significantly increasing the rate of errors. We show that our method achieves significant reduction in labor while achieving an accuracy that is similar to the level of agreement between different anatomists.

摘要

神经解剖学中一项重要但劳动强度大的任务是识别特定的细胞群体。当前的高通量技术能够通过组织化学荧光分子以及荧光蛋白的基因表达来标记细胞。现代扫描显微镜允许对机械或光学切片的大脑进行高分辨率多通道成像,每平方毫米有成千上万个标记细胞。手动识别所有标记细胞非常耗时。同时,简单的分割算法存在高错误率且对荧光强度和空间分布的变化敏感。我们提出一种结合人工判断和机器学习的方法,该方法可显著减少解剖学家的工作量,同时提高注释的一致性。作为演示,我们分析了脑干中标记有运动前神经元的小鼠大脑。我们将我们方法的错误率与人类解剖学家之间的分歧率进行了比较。这种比较表明,我们的方法可以将注释时间减少多达十倍,而不会显著增加错误率。我们表明,我们的方法在大幅减少工作量的同时,实现了与不同解剖学家之间的一致水平相似的准确性。

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