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tooluniverse-residue-functional-mechanism-interpretation

Given a set of residues in a protein, explain WHY they are functionally critical by combining structural context (binding interface, ligand pocket, core, secondary structure), UniProt features (active sites, binding sites, PTM sites, disulfides), optional SAE feature evidence, and optional DMS data. Accepts residues from any source: DMS hotspots (top-K by max effect), ClinVar recurrent variants, literature-reported hot regions, evolutionarily conserved positions, or user-curated lists. Returns a per-cluster mechanism call: catalytic / ligand-binding / interface / structural-core / PTM / regulatory / unknown.

66

Quality

80%

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SecuritybySnyk

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tessl review fix ./plugins/tooluniverse/skills/tooluniverse-residue-functional-mechanism-interpretation/SKILL.md

The canonical home for this skill is tooluniverse-residue-functional-mechanism-interpretation in mims-harvard/ToolUniverse

SKILL.md
Quality
Evals
Security

Quality

Content

85%Weight 40%Scale 1-5

Reviews the quality of instructions and guidance provided to agents. Good implementation is clear, handles edge cases, and produces reliable results.

The content is highly actionable with executable code, clear sequencing, and strong validation checkpoints, but everything is inlined in one large SKILL.md with no one-level-deep references, leaving progressive disclosure as the weakest dimension. Splitting some detail into referenced files would improve navigability.

Suggestions

Move the long Step 7 visualization code into a referenced file (e.g. references/heatmap.py) and keep only the alignment checkpoint and key rules inline, to improve progressive disclosure.

Tighten the KRAS G12/G13 premise example and heatmap cell-color rules to a few lines each while preserving the pitfall message.

Consider extracting the interpretation table and honest-limitations list into a short reference doc if the skill grows further, keeping SKILL.md as an overview.

DimensionReasoningScore

Conciseness

Mostly efficient with actionable code and tables and little re-explanation of basics, though a few prose passages (the KRAS worked example, heatmap cell-color rules) could be tightened without losing value.

4 / 5

Actionability

Fully executable Python throughout with real tool names and parameters (numpy argsort, Structure_annotate_per_residue, UniProt_get_function_by_accession, ESM SAE tools, matplotlib), with concrete Path A/Path B examples covering the common cases.

5 / 5

Workflow Clarity

Clear Step 0-7 sequence with explicit validation checkpoints (premise check with a top-% decision rule, alignment assert in Step 7) and a real feedback loop that requires reporting mismatches transparently before continuing.

5 / 5

Progressive Disclosure

The body is a single large inlined file with no bundle references; sections are well-organized with a cross-reference table, but bulk content like the long Step 7 visualization code that could live one level deep is inlined.

3 / 5

Total

17

/

20

Passed

Description

75%Weight 40%Scale 1-5

Based on the skill's description, can an agent find and select it at the right time? Clear, specific descriptions lead to better discovery.

The description is highly specific and distinctive with concrete actions and a clear output contract, but it lacks an explicit 'Use when...' trigger clause, which limits completeness. Adding natural trigger phrasing would raise the trigger-term and completeness scores.

Suggestions

Add an explicit 'Use when...' clause naming natural user triggers, e.g. 'Use when explaining why a set of protein residues is functionally important or assigning a mechanism category to each residue/cluster.'

Soften jargon (SAE, DMS, top-K by max effect) in the opening sentence or pair it with plainer synonyms so the description reads in natural user language.

Keep the comprehensive output-category list and source enumeration, as these drive the strong specificity and distinctiveness scores.

DimensionReasoningScore

Specificity

Lists multiple concrete actions (combine structural context, UniProt features, SAE, DMS) and enumerates both residue sources and the full set of output mechanism categories, giving comprehensive coverage rather than just several actions with minor gaps.

5 / 5

Completeness

Has a clear 'what' (synthesize multi-source evidence into a per-cluster mechanism call) but no 'Use when...' clause or explicit trigger guidance, which caps completeness at 3 per the rubric.

3 / 5

Trigger Term Quality

Includes relevant natural terms like 'residues', 'functionally critical', 'ClinVar recurrent variants', and 'conserved positions', but leans technical (SAE, DMS, top-K) and omits common phrasings a biologist would actually say.

4 / 5

Distinctiveness Conflict Risk

Occupies a clear narrow niche (residue mechanism interpretation) with specific output categories and is explicitly distinguished from sibling single-variant skills, so conflict risk is minimal.

5 / 5

Total

17

/

20

Passed

Validation

93%

Checks the skill against the spec for correct structure and formatting. All validation checks must pass before discovery and implementation can be scored.

Validation15 / 16 Passed

Validation for skill structure

CriteriaDescriptionResult

skill_md_line_count

SKILL.md is long (506 lines); consider splitting into references/ and linking

Warning

Total

15

/

16

Passed

Repository
mims-harvard/ToolUniverse
Reviewed

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