bio-workflows-imc-pipeline

Process IMC data from raw acquisitions to spatial cell analysis.

Updated Aug 23, 2026
One-click install
npx skills add https://github.com/stellaromics/fast-bioinfo --skill bio-workflows-imc-pipeline
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: bio-workflows-imc-pipeline
Source: https://github.com/stellaromics/fast-bioinfo/tree/main/.claude/agents/spatial-analysis/skills/bio-workflows-imc-pipeline
Command: npx skills add https://github.com/stellaromics/fast-bioinfo --skill bio-workflows-imc-pipeline

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Imaging mass cytometry experiments generate large, complex pipelines that require coordinating preprocessing, segmentation, phenotyping, and spatial analysis. This Skill provides an end-to-end blueprint to streamline IMC workflows from raw data to spatial insights.

Core Features & Use Cases

  • End-to-end IMC pipeline: Orchestrates preprocessing (spillover correction, hot pixel removal), segmentation (Cellpose/Mesmer), single-cell quantification, phenotyping, and spatial statistics.
  • Reproducible workflows: Uses a Python-based toolchain (steinbock) and explicit dependencies to ensure reproducibility across samples.
  • Use Case: Process a multi-sample IMC study to derive cell-type maps and spatial neighborhoods for tumor microenvironment analysis.

Quick Start

Run the IMC pipeline on your MCD files to produce segmented cells, annotated phenotypes, and spatial interaction results.

Frequently Asked Questions about bio-workflows-imc-pipeline

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I process imaging mass cytometry data from raw MCD files to spatial analysis?

Imaging mass cytometry data processing from raw MCD files to spatial analysis involves orchestrating preprocessing, segmentation, phenotyping, and spatial statistics. This workflow uses a Python-based toolchain to streamline the entire pipeline across multiple samples.

What is the best way to run an end-to-end IMC pipeline for tumor microenvironment analysis?

The best way to run an end-to-end IMC pipeline for tumor microenvironment analysis is using a reproducible Python-based toolchain. It orchestrates preprocessing, cell segmentation, phenotyping, and spatial neighborhood derivation across multi-sample studies.

Can I use Cellpose and Mesmer for cell segmentation in an imaging mass cytometry workflow?

Yes, you can use Cellpose and Mesmer for cell segmentation in an imaging mass cytometry workflow. The pipeline supports these segmentation methods to identify single cells before quantification and phenotyping.

Does steinbock support preprocessing tasks like spillover correction and hot pixel removal for IMC data?

Yes, steinbock supports preprocessing tasks like spillover correction and hot pixel removal for IMC data. It orchestrates these preprocessing steps to clean raw acquisitions before cell segmentation and downstream analysis.

How do I derive cell-type maps and spatial neighborhoods from multi-sample IMC studies?

Deriving cell-type maps and spatial neighborhoods from multi-sample IMC studies requires running spatial statistics on segmented and phenotyped cells. The workflow processes raw acquisitions to output annotated phenotypes and spatial interaction results.

Do I need Python to run a reproducible imaging mass cytometry pipeline?

Yes, you need Python to run a reproducible imaging mass cytometry pipeline. The workflow is Python-based and uses explicit dependencies via the steinbock toolchain to ensure reproducibility across multiple samples.