General
tooluniverse-multiomic-disease-characterization - Claude MCP Skill
Comprehensive multi-omics disease characterization integrating genomics, transcriptomics, proteomics, pathway, and therapeutic layers for systems-level understanding. Produces a detailed multi-omics report with quantitative confidence scoring (0-100), cross-layer gene concordance analysis, biomarker candidates, therapeutic opportunities, and mechanistic hypotheses. Uses 80+ ToolUniverse tools across 8 analysis layers. Use when users ask about disease mechanisms, multi-omics analysis, systems biology of disease, biomarker discovery, or therapeutic target identification from a disease perspective.
SEO Guide: Enhance your AI agent with the tooluniverse-multiomic-disease-characterization tool. This Model Context Protocol (MCP) server allows Claude Desktop and other LLMs to comprehensive multi-omics disease characterization integrating genomics, transcriptomics, proteomics... Download and configure this skill to unlock new capabilities for your AI workflow.
Documentation
SKILL.md# Multi-Omics Disease Characterization Pipeline Characterize diseases across multiple molecular layers (genomics, transcriptomics, proteomics, pathways) to provide systems-level understanding of disease mechanisms, identify therapeutic opportunities, and discover biomarker candidates. **KEY PRINCIPLES**: 1. **Report-first approach** - Create report file FIRST, then populate progressively 2. **Disease disambiguation FIRST** - Resolve all identifiers before omics analysis 3. **Layer-by-layer analysis** - Systematically cover all omics layers 4. **Cross-layer integration** - Identify genes/targets appearing in multiple layers 5. **Evidence grading** - Grade all evidence as T1 (human/clinical) to T4 (computational) 6. **Tissue context** - Emphasize disease-relevant tissues/organs 7. **Quantitative scoring** - Multi-Omics Confidence Score (0-100) 8. **Druggable focus** - Prioritize targets with therapeutic potential 9. **Biomarker identification** - Highlight diagnostic/prognostic markers 10. **Mechanistic synthesis** - Generate testable hypotheses 11. **Source references** - Every statement must cite tool/database 12. **Completeness checklist** - Mandatory section showing analysis coverage 13. **English-first queries** - Always use English terms in tool calls. Respond in user's language Multi-omics disease characterization asks: what molecular layers are dysregulated? Genomic mutations → transcriptomic changes → proteomic effects → metabolomic consequences. Concordance across layers strengthens the finding. Discordance reveals regulatory complexity. ## LOOK UP, DON'T GUESS When uncertain about any scientific fact, SEARCH databases first rather than reasoning from memory. A database-verified answer is always more reliable than a guess. --- ## COMPUTE, DON'T DESCRIBE When analysis requires computation (statistics, data processing, scoring, enrichment), write and run Python code via Bash. Don't describe what you would do — execute it and report actual results. Use ToolUniverse tools to retrieve data, then Python (pandas, scipy, statsmodels, matplotlib) to analyze it. ## When to Use This Skill Apply when users: - Ask about disease mechanisms across omics layers - Need multi-omics characterization of a disease - Want to understand disease at the systems biology level - Ask "What pathways/genes/proteins are involved in [disease]?" - Need biomarker discovery for a disease - Want to identify druggable targets from disease profiling - Ask for integrated genomics + transcriptomics + proteomics analysis - Need cross-layer concordance analysis - Ask about disease network biology / hub genes **NOT for** (use other skills instead): - Single gene/target validation -> Use `tooluniverse-drug-target-validation` - Drug safety profiling -> Use `tooluniverse-adverse-event-detection` - General disease overview -> Use `tooluniverse-disease-research` - Variant interpretation -> Use `tooluniverse-variant-interpretation` - GWAS-specific analysis -> Use `tooluniverse-gwas-*` skills - Pathway-only analysis -> Use `tooluniverse-systems-biology` --- ## Input Parameters | Parameter | Required | Description | Example | |-----------|----------|-------------|---------| | **disease** | Yes | Disease name, OMIM ID, EFO ID, or MONDO ID | `Alzheimer disease`, `MONDO_0004975` | | **tissue** | No | Tissue/organ of interest | `brain`, `liver`, `blood` | | **focus_layers** | No | Specific omics layers to emphasize | `genomics`, `transcriptomics`, `pathways` | --- ## Pipeline Overview The pipeline runs 9 phases sequentially. Each phase uses specific tools documented in detail in `tool-reference.md`. ### Phase 0: Disease Disambiguation (ALWAYS FIRST) Resolve disease to standard identifiers (MONDO/EFO) for all downstream queries. - Primary tool: `OpenTargets_get_disease_id_description_by_name` - Get description, synonyms, therapeutic areas, disease hierarchy, cross-references - **CRITICAL**: Disease IDs use underscore format (e.g., `MONDO_0004975`), NOT colon - If ambiguous, present top 3-5 options and ask user to select ### Phase 1: Genomics Layer Identify genetic variants, GWAS associations, and genetically implicated genes. - Tools: `gwas_search_associations` (use `efo_id` for precision, not free-text `disease_trait`), `gwas_get_snps_for_gene`, ClinVar, OpenTargets associated targets - `gnomad_get_gene_constraints` — gene constraint metrics (pLI, oe_lof) to interpret whether LoF variants are tolerated vs. haploinsufficient - Get top 10-15 genes with genetic evidence scores; track Ensembl IDs for downstream phases ### Phase 2: Transcriptomics Layer Identify differentially expressed genes, tissue-specific expression, and expression-based biomarkers. - `GTEx_get_expression_summary` — baseline expression across 54 tissues (accepts `gene_symbol` directly) - Tools: Expression Atlas, HPA (tissue expression), EuropePMC scores - Check expression in disease-relevant tissues for top genes from Phase 1 ### Phase 3: Proteomics & Interaction Layer Map protein-protein interactions, identify hub genes, and characterize interaction networks. - `UniProt_get_function_by_accession` — protein function narrative (essential for mechanistic context) - Tools: `STRING_get_network` (param: `identifiers`, `species`=9606), `intact_get_interactions`, HumanBase - Build PPI network from top 15-20 genes; identify hub genes by degree centrality ### Phase 4: Pathway & Network Layer Identify enriched biological pathways and cross-pathway connections. - `ReactomeAnalysis_pathway_enrichment` — identifiers are **newline-separated** (`\n`), NOT space-separated - `enrichr_gene_enrichment_analysis` — param: `gene_list` (array), `libs` (array). NOTE: `data` field is a JSON string that needs parsing - `kegg_search_pathway` — pathway keyword search ### Phase 5: Gene Ontology & Functional Annotation Characterize biological processes, molecular functions, and cellular components. - Tools: Enrichr (GO libraries), QuickGO, GO annotations, OpenTargets GO - Run GO enrichment for all 3 aspects (BP, MF, CC) ### Phase 6: Therapeutic Landscape Map approved drugs, druggable targets, repurposing opportunities, and clinical trials. - `DGIdb_get_drug_gene_interactions` — drug interactions by gene (param: `genes` as array). Often more comprehensive than OpenTargets for drug-gene data. - OpenTargets drugs/tractability (use **EFO IDs** like `EFO_0000384` for Crohn's, not MONDO — MONDO IDs may return null for drug queries) - `search_clinical_trials` — `query_term` is REQUIRED ### Phase 7: Multi-Omics Integration Integrate findings across all layers. See `integration-scoring.md` for full details. - Cross-layer gene concordance: count layers per gene, score multi-layer hub genes - Direction concordance: genetics + expression agreement - Biomarker identification: diagnostic, prognostic, predictive - Mechanistic hypothesis generation ### Phase 8: Report Finalization Write executive summary, calculate confidence score, verify completeness. - See `integration-scoring.md` for quality checklist and scoring formula --- ## Key Tool Parameter Notes These are the most common parameter pitfalls: - `OpenTargets` disease IDs: underscore format (`MONDO_0004975`), NOT colon - `STRING` `protein_ids`: must be **array** (`['APOE']`), not string - `enrichr` `libs`: must be **array** (`['KEGG_2021_Human']`) - `HPA_get_rna_expression_by_source`: ALL 3 params required (`gene_name`, `source_type`, `source_name`) - `humanbase_ppi_analysis`: ALL params required (`gene_list`, `tissue`, `max_node`, `interaction`, `string_mode`) - `expression_atlas_disease_target_score`: `pageSize` is REQUIRED - `search_clinical_trials`: `query_term` is REQUIRED even if `condition` is provided For full tool parameters and per-phase workflows, see `tool-reference.md`. --- ## Reference Files All detailed content is in reference files in this directory: | File | Contents | |------|----------| | `tool-reference.md` | Full tool parameters, inputs/outputs, per-phase workflows, quick reference table | | `report-template.md` | Complete report markdown template with all sections and checklists | | `integration-scoring.md` | Confidence score formula (0-100), evidence grading (T1-T4), integration procedures, quality checklist | | `response-formats.md` | Verified JSON response structures for key tools | | `use-patterns.md` | Common use patterns, edge case handling, fallback strategies |
Signals
Information
- Repository
- mims-harvard/ToolUniverse
- Author
- mims-harvard
- Last Sync
- 5/10/2026
- Repo Updated
- 5/10/2026
- Created
- 2/19/2026
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