跳跃式监视
计算机科学
分割
人工智能
像素
卷积神经网络
最小边界框
多边形(计算机图形学)
计算机视觉
代表(政治)
模式识别(心理学)
图像分割
显微镜
人工神经网络
图像(数学)
目标检测
尺度空间分割
深度学习
距离变换
沃罗诺图
荧光显微镜
图像处理
矩形
作者
Uwe Schmidt,Martin Weigert,Coleman Broaddus,Gene Myers
标识
DOI:10.1007/978-3-030-00934-2_30
摘要
Automatic detection and segmentation of cells and nuclei in microscopy images is important for many biological applications. Recent successful learning-based approaches include per-pixel cell segmentation with subsequent pixel grouping, or localization of bounding boxes with subsequent shape refinement. In situations of crowded cells, these can be prone to segmentation errors, such as falsely merging bordering cells or suppressing valid cell instances due to the poor approximation with bounding boxes. To overcome these issues, we propose to localize cell nuclei via star-convex polygons, which are a much better shape representation as compared to bounding boxes and thus do not need shape refinement. To that end, we train a convolutional neural network that predicts for every pixel a polygon for the cell instance at that position. We demonstrate the merits of our approach on two synthetic datasets and one challenging dataset of diverse fluorescence microscopy images.
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