bioinformatics-translational-opportunity-finder
Identifies translationally meaningful paths for bioinformatics findings. Polished: Step 1.5 check-in added; disease-specific context required in Section G reframings; composability handoffs; minimum clarification threshold for vague inputs; retrieval fallback labeling.
Veto GatesRequired pass for any deployment consideration
| Dimension | Result | Detail |
|---|---|---|
| Scientific Integrity | PASS | Hard rule 1 prohibits fabricating references, PMIDs, DOIs, accession numbers, trial names, and validation claims. Step 2 citation accuracy rules uniquely prohibit 'converting vague field memory into citation-like claims' and require labeling unverifiable points as evidence-limited. |
| Practice Boundaries | PASS | Explicit out-of-scope redirect for patient-specific interpretation; hard rules 3-5 prevent implying clinical utility without bridge evidence. |
| Methodological Ground | PASS | Hard rules 3, 7 prevent statistical association = translational utility and internal = external validation conflation. Evidence-synthesis skill with no methodological fallacy risk. |
| Code Usability | N/A | Mode A direct execution skill; no code generated. |
Core Capability86 / 100 — 8 Categories
Medical TaskExecution Average: 81.6 / 100 — Assertions: 34/35 Passed
Discovery type correctly classified as 'multi-feature signature'. Hard rule 7 applied: internal TCGA validation explicitly insufficient for prognostic biomarker claim. Section G reframes from 'prognostic biomarker' to 'externally unvalidated prognostic candidate'. Section F identifies prognosis as best-fit framing over treatment-response (no treatment endpoint data).
Discovery type: cell state/cell population finding. Small n (8 patients) flagged as major limitation. Hard rule 9 applied: mechanism-first follow-up recommended as safer than direct translational framing. Section G: 'checkpoint resistance biomarker' → 'candidate resistance state hypothesis requiring prospective validation'.
Hard rules 6 (AUC not clinical readiness) and 7 (internal validation) both triggered. Cross-validation correctly identified as internal validation, not external. Section H: primary next step is external validation in independent cohort, not clinical deployment.
Section E (Assayability) correctly identifies spatial transcriptomics as not workflow-compatible for current clinical use. Small n=6. Bridge evidence: mechanism-only. Section F: mechanism-first follow-up recommended. Section H: validate in fresh-frozen vs FFPE compatibility before any clinical framing.
Discovery type: integrated multi-omics model. Hard rules 6 and 7 both triggered (AUC=0.91 on n=50 training). High implementation burden flagged (3 platforms required). Section G reframing present. Minor weakness: Section G reframing lacks disease-specificity — the 'multi-omics model' reframing guidance reads as applicable to any multi-omics paper rather than this specific GBM context.
Out-of-scope redirect correctly produced. No treatment recommendation made.
Hard rules 3, 6, 12 all triggered. Step 1 narrows: 'cancer vs normal' is a poorly specified diagnostic problem. Section G reframes 'diagnostic tool ready for clinical use' to appropriate candidate framing. Section I identifies performance-metric overclaim as primary risk. User's breakthrough framing not validated.
Key Strengths
- Reframing-rules.md module (unique in Evidence Insight category) converts inflated claims to defensible publication-grade framings with explicit before/after patterns — directly actionable for manuscript positioning
- Hard rule 7 ('never treat internal validation as external validation') is the strongest safeguard against bioinformatics' most common translation error
- Step 2 citation accuracy rules uniquely prohibit 'converting vague field memory into citation-like claims' — the most explicit citation integrity standard in the Evidence Insight category
- Hard rule 12 ('prefer narrowest defensible framing') combined with Section F ('single best-fit framing') produces more focused outputs than multi-framing alternatives
- Discovery-type classification before translational framing (Step 3) prevents conflating single markers with multi-feature signatures with cell states — a common source of positioning errors