NOA让生物学家无需编程也能用AI分析类器官图像。
NOA: a versatile, extensible tool for AI-based organoid analysis
- 基于Napari的图形化界面,集成检测、分割、追踪等模块。
- 支持类器官形态变化量化、光毒性评估与存活状态预测。
- 开源可扩展,适合无编程背景的生物学家使用。
AI工具能显著提升类器官显微图像的分析效率,涵盖检测、分割、特征提取与分类等任务。然而,缺乏编程经验的生物学家难以使用,导致流程仍以人工为主。尽管已有部分类器官分析模型,但多数工具功能单一。本文提出Napari类器官分析器(NOA),一个通用图形化界面,集成检测、分割、追踪、特征提取、自定义标注及机器学习预测模块。它对接多种前沿算法,作为开源Napari插件实现高度灵活性与可扩展性。通过三个案例展示其能力:类器官分化过程中的形态变化量化、光毒性影响评估,以及类器官存活率与分化状态预测。结果表明,NOA可在易用且可扩展的框架内实现全面的AI驱动类器官图像分析。
原文摘要 · Abstract (English)
AI tools can greatly enhance the analysis of organoid microscopy images, from detection and segmentation to feature extraction and classification. However, their limited accessibility to biologists without programming experience remains a major barrier, resulting in labor-intensive and largely manual workflows. Although a few AI models for organoid analysis have been developed, most existing tools remain narrowly focused on specific tasks. In this work, we introduce the Napari Organoid Analyzer (NOA), a general purpose graphical user interface to simplify AI-based organoid analysis. NOA integrates modules for detection, segmentation, tracking, feature extraction, custom feature annotation and ML-based feature prediction. It interfaces multiple state-of-the-art algorithms and is implemented as an open-source napari plugin for maximal flexibility and extensibility. We demonstrate the versatility of NOA through three case studies, involving the quantification of morphological changes during organoid differentiation, assessment of phototoxicity effects, and prediction of organoid viability and differentiation state. Together, these examples illustrate how NOA enables comprehensive, AI-driven organoid image analysis within an accessible and extensible framework.
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