深度学习
计算机科学
卷积神经网络
人工智能
基本事实
分割
模态(人机交互)
模式
试验装置
任务(项目管理)
注释
体积热力学
集合(抽象数据类型)
数据集
机器学习
人工神经网络
软件
社会科学
物理
管理
量子力学
社会学
经济
程序设计语言
作者
Natalie Holroyd,Zhongwang Li,Claire Walsh,Emmeline Brown,Rebecca J. Shipley,Simon Walker‐Samuel
标识
DOI:10.1101/2023.07.24.550334
摘要
Abstract Deep learning has become an invaluable tool for bioimage analysis but, while open-source cell annotation software such as cellpose are widely used, an equivalent tool for three-dimensional (3D) vascular annotation does not exist. With the vascular system being directly impacted by a broad range of diseases, there is significant medical interest in quantitative analysis for vascular imaging. However, existing deep learning approaches for this task are specialised to particular tissue types or imaging modalities. We present a new deep learning model for segmentation of vasculature that is generalisable across tissues, modalities, scales and pathologies. To create a generalisable model, a 3D convolutional neural network was trained using data from multiple modalities including optical imaging, computational tomography and photoacoustic imaging. Through this varied training set, the model was forced to learn common features of vessels cross-modality and scale. Following this, the general model was fine-tuned to different applications with a minimal amount of manually labelled ground truth data. It was found that the general model could be specialised to segment new datasets, with a high degree of accuracy, using as little as 0.3% of the volume of that dataset for fine-tuning. As such, this model enables users to produce accurate segmentations of 3D vascular networks without the need to label large amounts of training data.
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