FlowScatt
FlowScatt decouples fluorescence from scattering signals in flow cytometry data to enable volume-independent, more accurate single-cell fluorescence measurements.
Key Features:
- Volume decoupling: Removes the positive correlation between fluorescence and scattering caused by cell volume to produce size-independent fluorescence metrics.
- Scattering decomposition: Decomposes scattering signals into constituent parts to derive a unified estimate of cell volume.
- Fluorescence recalculation: Recalculates fluorescence values based on a unified cell volume to yield volume-normalized fluorescence measurements.
- Flow cytometry compatibility: Operates on fluorescence and scattering measurements typical of flow cytometry single-cell data.
- Accuracy and precision improvement: Improves the reliability of fluorescence as an independent metric for cellular characterization by removing volume-related artifacts.
- Validation data: Uses experimental data sets for validation of its methodology.
- Implementation: Implemented in Python.
Scientific Applications:
- Volume-independent fluorescence analysis: Enables comparison of fluorescence across cells without confounding by cell size or shape.
- Single-cell performance characterization: Supports high-precision single-cell performance characterization in flow cytometry studies.
- Cytometry and single-cell analysis: Enhances robustness and interpretability of cellular property measurements derived from flow cytometry.
Methodology:
Decomposes scattering signals into constituent parts, derives a unified cell volume from that decomposition, and recalculates fluorescence values based on the unified volume; implemented in Python and validated with experimental data sets.
Topics
Details
- Tool Type:
- command-line tool, workflow
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 3/11/2021
Operations
Publications
Stoof R, Grozinger L, Tas H, Goñi-Moreno Á. FlowScatt: enabling volume-independent flow cytometry data by decoupling fluorescence from scattering. Unknown Journal. 2020. doi:10.1101/2020.07.23.217869.