bio-workflows-clip-pipeline

Orchestrate end-to-end CLIP-seq analysis from FASTQ to motif enrichment.

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

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

End-to-end CLIP-seq analysis from FASTQ to binding site annotation and motif enrichment.

Core Features & Use Cases

  • Automates CLIP-seq preprocessing: UMI extraction, adapter trimming, alignment, and deduplication.
  • Performs peak calling and binding-site annotation for multiple CLIP variants (HITS-CLIP, iCLIP, eCLIP, PAR-CLIP).
  • Enables motif enrichment analysis on identified peaks to discover RNA-binding protein motifs.

Quick Start

Run the complete CLIP-seq workflow on a FASTQ dataset to derive peaks and enriched motifs.

Frequently Asked Questions about bio-workflows-clip-pipeline

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

FAQPage Schema
How do I run end-to-end CLIP-seq analysis from FASTQ files to motif enrichment?▼

End-to-end CLIP-seq analysis from FASTQ files to motif enrichment is orchestrated by automating UMI extraction, adapter trimming, alignment, deduplication, peak calling, and annotation. The workflow provides explicit steps and quality checkpoints to produce robust binding site and motif results.

Does this CLIP-seq pipeline support both eCLIP and PAR-CLIP workflows?▼

Yes, this CLIP-seq pipeline supports eCLIP and PAR-CLIP workflows, alongside HITS-CLIP and iCLIP. It handles the specific preprocessing, peak calling, and binding-site annotation requirements for these multiple CLIP variants to identify protein-RNA interactions.

What bioinformatics tools do I need for CLIP-seq preprocessing and peak calling?▼

CLIP-seq preprocessing and peak calling require standard bioinformatics tools including UMI-tools, STAR, samtools, bedtools, clipper, and HOMER. The pipeline orchestrates these dependencies to execute UMI extraction, alignment, deduplication, and motif analysis.

How does UMI extraction and deduplication work in iCLIP data analysis?▼

UMI extraction and deduplication in iCLIP data analysis function by extracting unique molecular identifiers before alignment and removing PCR duplicates afterward. The pipeline leverages UMI-tools to perform these steps, ensuring accurate quantification of RNA-binding protein sites.

What is the best way to identify RNA-binding protein motifs from CLIP-seq peaks?▼

The best way to identify RNA-binding protein motifs from CLIP-seq peaks is through motif enrichment analysis on the identified binding sites. The pipeline applies HOMER to discover enriched sequences after peak calling and annotation are completed.

Can I use STAR alignment output directly for CLIP-seq peak calling and annotation?▼

Yes, STAR alignment output can be used for CLIP-seq peak calling and annotation after deduplication. The workflow processes aligned reads through samtools and bedtools, passing them to clipper for peak calling and subsequent binding-site annotation.