Tooluniverse Drug Target Validation
CheckedValidates potential drug targets using diverse data sources and predictive models from the ToolUniverse platform.
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terminal$ npx skills add mims-harvard/tooluniverse --skill tooluniverse-drug-target-validation -a claude-code Uses the open-source
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mims-harvard
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Automated safety checks
This skill passed all 6 checks. We read its files at one commit and looked for the things that make a skill dangerous to run — not for whether it works.
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Scanned mims-harvard/tooluniverse at f5c37eebeb.
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About this skill
What it does
This skill, Tooluniverse Drug Target Validation, helps AI agents evaluate potential drug targets using a structured, data-driven approach. It assesses target hypotheses against four key criteria: genetic evidence, druggability, safety (essentiality in normal tissue), and competitive landscape. The tool produces a quantitative Target Validation Score (0-100) with a priority tier classification and a GO/NO-GO recommendation to inform decisions before committing to laboratory experiments.
When to use it
- When evaluating potential drug targets for a specific disease.
- Before initiating wet-lab validation of a drug target hypothesis.
- To prioritize drug targets based on computational evidence and risk assessment.
- To quickly assess the viability of a target by identifying early "no-go" indicators.
Key capabilities
- Genetic Evidence Assessment: Evaluates links to disease using data from OpenTargets and GWAS Catalog.
- Druggability Analysis: Checks structure availability, binding pocket prediction (ProteinsPlus), and considers target class.
- Safety Evaluation: Assesses expression in critical tissues and potential lethality based on mouse knockout studies.
- Competitive Landscape Review: Identifies existing or late-stage drugs targeting the same pathway using ChEMBL, DrugBank, and ClinicalTrials.gov.
- Quantitative Scoring: Generates a Target Validation Score (0-100) to summarize overall viability.
- Automated Data Retrieval & Analysis: Uses Python code via Bash to retrieve data from ToolUniverse tools and perform statistical analysis.
Example prompts
- "Evaluate [Target Name] as a drug target for [Disease Name]."
- "What is the Target Validation Score for [Target Name]?"
- "Assess the druggability of [Target Name]."
- “Can you tell me about any safety concerns associated with targeting [Target Name]?”
Tips & gotchas
- Prioritize Disease Association: Do not proceed to later analysis phases without first establishing a clear disease association.
- Data Verification is Crucial: Always verify data from databases (GTEx, HPA, ClinicalTrials.gov) rather than making assumptions.
- Computational Analysis Required: The skill relies on automated Python code execution; it does not provide descriptive summaries of analysis steps.