| name | gene-regulatory-networks |
| description | Workflow for regulatory network inference, regulon scoring, perturbation-aware comparison, and network visualization. |
| tool_type | python |
| primary_tool | arboreto-like |
Gene Regulatory Networks
Version Compatibility
Reference examples assume recent stable releases of the preferred tools, especially arboreto-like and the other tools listed below.
Before using code or command patterns, verify installed versions match the environment:
- Python:
python -c "import <module>; print(<module>.__version__)"
- CLI:
<tool> --version
- If signatures differ, inspect the installed help or API and adapt the pattern instead of retrying unchanged.
Overview
Workflow for regulatory network inference, regulon scoring, perturbation-aware comparison, and network visualization.
When To Use This Skill
- use when the task is GRN inference or regulon-level interpretation
- use when the data include expression matrices and optionally chromatin features or TF priors
- use when the user needs network-level summaries rather than only gene lists
Quick Route
- If the input is raw or minimally processed data, start with validation and QC before any modeling.
- If the input is already processed, skip directly to the first workflow step that matches the user goal.
- If the user asks for a biological conclusion, always produce at least one QC or confidence artifact alongside the final result.
Progressive Disclosure
- Read
references/technical_reference.md when you need deeper tool-selection rules, environment adaptation notes, or extra validation guidance.
- Keep
SKILL.md as the main execution path and load the reference file only when the task or failure mode needs the extra detail.
Default Rules
- Prefer Python-first workflows unless the task explicitly requires something else.
- Keep intermediate and final outputs separated.
- Record software versions, reference builds, and key parameters when they affect interpretation.
- Favor reproducible tables and figures over one-off interactive-only outputs.
Expected Inputs
- expression matrix
- optional accessibility data
- TF prior resources
Expected Outputs
- inferred networks
- regulon activity tables
- network visualizations
Preferred Tools
- arboreto-like GRN utilities
- networkx
- pandas
- seaborn
Starter Pattern
Preferred starting point: arboreto-like
Inputs: expression matrix, optional accessibility data, TF prior resources
Outputs: inferred networks, regulon activity tables, network visualizations
Workflow
1. Choose the evidence model
Clarify whether inference is coexpression-based, prior-constrained, or multimodal.
2. Infer or score networks
Run network inference or regulon-scoring methods appropriate to the data type.
3. Compare across states
Summarize regulators and network changes across conditions, perturbations, or branches.
4. Visualize selectively
Plot subnetworks or regulator-centric views rather than full unreadable graphs.
5. Export confidence-aware outputs
Store edge weights, regulator scores, and evidence annotations.
Output Artifacts
- Recommended output layout:
results/ for final tables and serialized objects
figures/ for plots and static visual exports
qc/ for checks that justify downstream interpretation
- Minimum expected outputs for this skill:
inferred networks
regulon activity tables
network visualizations
Quality Review
- Confirm identifiers and metadata join correctly before modeling or summarizing.
- Generate at least one QC artifact before final biological interpretation.
- Keep raw or minimally processed inputs separate from transformed outputs.
- Check assay-specific QC such as enrichment quality, coverage behavior, or replicate consistency.
- Verify genome build, interval coordinates, and annotation compatibility.
Anti-Patterns
- presenting inferred networks as validated causal circuitry
- plotting whole dense networks without summarization
- mixing inference evidence types without labeling them
Related Skills
ATAC Seq
ChIP Seq
Methylation Analysis
Epitranscriptomics
Optional Supplements