PlantSeg
PlantSeg is a deep learning-based tool specifically designed for cell segmentation in plant tissues, addressing the unique challenges of plant cell structure and morphology.
Overview
PlantSeg combines deep learning-based boundary prediction with graph partitioning algorithms to achieve accurate cell segmentation in complex 3D plant tissues.
Environment
Environment: plantseg
Available Tasks
Start PlantSeg GUI
Launch the PlantSeg graphical user interface:
pixi run plantseg-gui
Features
- Deep learning segmentation: State-of-the-art neural networks trained on plant tissues
- 3D cell segmentation: Specialized for volumetric plant imaging data
- Pre-trained models: Multiple models trained on different plant tissues and organs
- Graph partitioning: Advanced algorithms for separating touching cells
- Batch processing: Process multiple datasets efficiently
- Custom training: Ability to train models on your own plant data
- Multi-scale analysis: Handle images at different resolutions
Supported Plant Tissues
- Root tissues: Specialized models for root cell segmentation
- Leaf tissues: Models optimized for leaf cellular structure
- Shoot apical meristems: Segmentation of meristematic tissues
- Ovules: Specialized for reproductive tissue analysis
- General plant tissues: Multi-purpose models for various plant organs
Workflow Steps
- Image preprocessing: Prepare your 3D microscopy data
- Boundary prediction: Use neural networks to predict cell boundaries
- Segmentation: Apply graph partitioning to separate individual cells
- Post-processing: Refine segmentation results
- Analysis: Extract quantitative measurements from segmented cells
Getting Started
- Make sure you have pixi installed and this repository cloned
- Navigate to the repository directory
- Run
pixi run plantseg-guito start the PlantSeg interface - Load your 3D plant imaging data and select appropriate models
- Run the segmentation pipeline and analyze your results!
Input Requirements
- 3D image stacks: Confocal or light-sheet microscopy data
- Supported formats: TIFF, H5, various microscopy formats
- Cell wall staining: Images with clear cell boundary visualization
- Resolution: Isotropic or near-isotropic voxel spacing recommended
Use Cases
- Developmental biology: Track cell divisions and growth in developing organs
- Cell morphometry: Quantify cell shape, size, and volume
- Tissue architecture: Analyze 3D tissue organization and structure
- Comparative studies: Compare cellular organization across different conditions
- Growth analysis: Study cell expansion and tissue growth patterns