Skip to content
Open access

CellColoc: A modular, open-source workflow for cell colocalization, segmentation, and feature extraction in microscopy images

Jul 2026 · bioRxiv · 1 citation · 25 references
Biology

TL;DR

By separating reusable analysis logic from project-specific configuration, CellColoc offers an extensible foundation for community-driven microscopy workflows that need transparent per-cell overlap classification, morphology readouts, and reusable batch analysis.

Abstract

Quantitative cell colocalization in fluorescence microscopy often depends on ad hoc combinations of image loading, segmentation, region selection, manual inspection, and spreadsheet post-processing. Such workflows are difficult to transfer across projects and often obscure how intermediate results were produced. We present CellColoc, an open-source Python workflow pipeline for segmentation-based cell colocalization, single-channel segmentation, and cell feature extraction in 2D and 3D microscopy images. CellColoc provides a modular workflow layer that integrates existing segmentation backends, including Cellpose and threshold-based methods, into reusable, script-driven analyses. The package supports channel-wise backend selection, interactive or reusable regions of interest, optional third-channel occupancy and cell-positivity analysis, z-cropping and z-projection, cached post hoc refinement of Cellpose thresholds, and reanalysis after manual mask editing. Analyses are executed from concise user scripts while reusable functionality is kept in a core package. Intermediate artifacts such as ROI masks, per-channel label masks, positive-cell masks, and structured result tables are written to a standardized results directory, promoting transparent inspection, reproducibility, and FAIR-aligned reuse. Public example datasets, a synthetic benchmark, and archived software releases accompany the package. By separating reusable analysis logic from project-specific configuration, CellColoc offers an extensible foundation for community-driven microscopy workflows that need transparent per-cell overlap classification, morphology readouts, and reusable batch analysis.

Read PDF

Similar papers

Open access Aug 2026

FOCUS-3D: Robust, generalizable volumetric cell segmentation for three-dimensional fluorescence microscopy

Understanding how cells establish spatial organization within tissues is a fundamental question in life sciences. While modern three-dimensional fluorescence microscopy captures large-volume tissue architecture, extracting quantitative cellular insights from complex volumetric datasets remains a major barrier. Here, we...

Qing-Hua Zhang, Ze-Yu Mu, Bo-Qi Liu et al. · 0 citations
Open access Sep 2026

3D-MAESTRO: A scalable, modular, portable pipeline for automated processing of large-scale volumetric brain microscopy data

Light microscopy is routinely used to explore the cellular and molecular structure of tissues, but the scale and complexity of data remains a bottleneck for discovery. We introduce 3D-MAESTRO (3D-Microscopy Automation and Execution with Scalable Tools, Rendering, and Orchestration): an automated image processing workfl...

Camilo Laiton, Nicholas A. Lusk, Yoni Browning et al. · 0 citations
Open access Aug 2026

QuantEM: An optimized platform of vision transformer-based models for segmentation and analysis of electron microscopy data

Electron microscopy (EM) is essential for resolving cellular ultrastructure, yet quantitative analysis remains limited by labor-intensive segmentation and the scarcity of generalizable models. Here we present QuantEM, an open-source platform for segmentation and analysis of EM data across imaging modalities, tissues, a...

Christopher Acree, Evan S. Krystofiak, Katie C. Coate et al. · 0 citations
Conference Sep 2026

High-resolution virtual staining via edge-integrated computation in microscopy

Virtual staining improves the interpretability of microscopy images without requiring chemical labeling; however, the computational cost of conventional image-to-image translation models limits their real-time use. Here, we present a lightweight virtual staining framework designed for edge and workstation environments,...

Shao-Wei Chen, Yun-Fei Zhang, Jun-Hao Lin et al. · 0 citations
Conference Aug 2026

A Framework for Automated Tracking of Morphologically Distinct Cell Populations in Time-Lapse Microscopy

Identifying morphologically distinct cell populations in time-lapse fluorescence microscopy is central to understanding how complex tissues develop and remodel, yet remains labor-intensive and subject to observer bias despite advances in cell segmentation. We present a generalizable computational framework for automate...

Prateek Verma, Chloe A. Kuebler, Minh-Hao Van et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.