NeuroWRAP
NeuroWRAP integrates and validates published and custom algorithms to analyze multiphoton (two-photon) calcium imaging data and assess reproducibility and robustness of cell segmentation and downstream analyses.
Key Features:
- Integration of Published Algorithms: Consolidates multiple published analysis algorithms into a unified framework for processing multiphoton calcium imaging data.
- Custom Algorithm Integration: Supports incorporation of user-supplied custom algorithms into existing workflows.
- Collaborative Workflow Development: Enables creation and sharing of workflows to support collaborative analysis and comparison of results.
- Reproducibility and Robustness: Standardizes analysis processes to facilitate reproducible results across studies.
- Sensitivity and Robustness Evaluation: Performs sensitivity analyses to evaluate pipeline performance for image analysis and cell segmentation.
- Consensus Analysis: Combines outputs from multiple workflows (e.g., CaImAn and Suite2p) to produce consensus segmentation results and improve reliability.
Scientific Applications:
- Multiphoton (two-photon) calcium imaging analysis: Processing and analysis of fluorescence imaging datasets to extract neuronal activity signals.
- Segmentation and pipeline validation: Evaluation and benchmarking of cell segmentation outputs and pipeline sensitivity in neuroscience imaging studies.
Methodology:
Wraps published and custom algorithms into standard and custom workflows, applies sensitivity and robustness analyses to image analysis and cell segmentation, and implements consensus analysis combining outputs from multiple workflows such as CaImAn and Suite2p.
Topics
Details
- Cost:
- Free of charge
- Tool Type:
- web application
- Operating Systems:
- Mac, Linux, Windows
- Added:
- 1/2/2024
- Last Updated:
- 11/24/2024
Operations
Publications
Bowen Z, Magnusson G, Diep M, Ayyangar U, Smirnov A, Kanold PO, Losert W. NeuroWRAP: integrating, validating, and sharing neurodata analysis workflows. Frontiers in Neuroinformatics. 2023;17. doi:10.3389/fninf.2023.1082111. PMID:37181735. PMCID:PMC10166805.