ample. As a pixel-wise segmentation is already produced by the network, but refined in post-processing to a single location in space, the network is already partially capable of generating meaningful 3D shape labels. Data Availability Statement The datasets and plugin used for this study can be found in the GitLab repository at https://gitlab.com/faraz.khan1/volumetric-segmentation-of-confocal-images . Author Contributions FK designed and implemented the computational algorithms, models and experiments. MP wrote the annotation tool and provided guidance. UV performed biological experiments and annotation. AF managed the project and helped design the approaches, with MP and FK. All authors co
Open resource ↗gitlab.com/faraz.khan1/volumetric-segmentation-of-confocal-images · lines:320-348Unverified paper record
Volumetric Segmentation of Cell Cycle Markers in Confocal Images Using Machine Learning and Deep Learning.
Frontiers in Plant Science · 28 Aug 2020 · 10.3389/fpls.2020.01275
Abstract
Understanding plant growth processes is important for many aspects of biology and food security. Automating the observations of plant development-a process referred to as plant phenotyping-is increasingly important in the plant sciences, and is often a bottleneck. Automated tools are required to analyze the data in microscopy images depicting plant growth, either locating or counting regions of cellular features in images. In this paper, we present to the plant community an introduction to and exploration of two machine learning approaches to address the problem of marker localization in confocal microscopy. First, a comparative study is conducted on the classification accuracy of common conventional machine learning algorithms, as a means to highlight challenges with these methods. Second, a 3D (volumetric) deep learning approach is developed and presented, including consideration of appropriate loss functions and training data. A qualitative and quantitative analysis of all the results produced is performed. Evaluation of all approaches is performed on an unseen time-series sequence comprising several individual 3D volumes, capturing plant growth. The comparative analysis shows that the deep learning approach produces more accurate and robust results than traditional machine learning. To accompany the paper, we are releasing the 4D point annotation tool used to generate the annotations, in the form of a plugin for the popular ImageJ (FIJI) software. Network models and example datasets will also be available online.
Plant phenotyping relevance
植物の共焦点画像から細胞周期マーカーを自動検出・分割する機械学習手法を開発し、定量評価・比較検証しているため、植物表現型取得が中心である。
abstractAutomating the observations of plant development-a process referred to as plant phenotyping-is increasingly important in the plant sciences
abstracta 3D (volumetric) deep learning approach is developed and presented
abstractA qualitative and quantitative analysis of all the results produced is performed.
abstractwe are releasing the 4D point annotation tool used to generate the annotations
Code and data availability
The paper's Data Availability Statement explicitly deposits the confocal image datasets, annotations, and the annotation plugin in a public GitLab repository, matching the allowed URL.
This is an automatically classified, unverified record. Curator approval is required before any resource enters the Catalog.