Literature triage weeks → hours
Agents summarize new papers, extract claims, and build citation graphs. Researchers approve suggested directions and exclude low‑signal results.
We build research‑grade agents and containerized data processors that accelerate discovery: from hypothesis generation to candidate selection, protocol planning, and literature synthesis—while keeping humans in the loop.
Agents summarize new papers, extract claims, and build citation graphs. Researchers approve suggested directions and exclude low‑signal results.
Prompted by known mechanisms and prior art; outputs include testable predictions, assumptions, and required controls.
Surrogate models (QSAR/MLP/GNN) rank candidates. Containers enforce datasets, versions, and reproducibility.
Agents convert hypotheses to protocols with reagent tables and stepwise checklists. Humans edit; agents generate BOM and risk notes.
Every run emits a trace (inputs → tools → outputs). Signed artifacts enable cross‑lab validation.
Median time from paper ingestion to a vetted, actionable brief.
Top‑k precision/recall of viable candidates from screening vs. baseline heuristics.
Proportion of protocols that pass lab QC on first run (after human review).
Compute + reagent cost per successful task relative to baseline.
Let T₀ be baseline time to a validated candidate and T₁ with AI assistance.
Acceleration = (T₀ − T₁) / T₀We estimate T₁ by summing phase reductions from literature triage, screening, and protocol design, each bounded by human review time.
Following our Stats model, conditional success depends on input quality (Q), task clarity (C), human‑in‑the‑loop (H), and risk (R).
P(S|F) ≈ w_Q Q + w_C C + w_H H − w_R RWe maximize P(F) by scoping tasks to feasible sub‑problems and adding checks.
Let y(x) be a surrogate score over candidate space x. If we accept candidates where y(x) ≥ τ:
Yield(τ) = ∫ 𝟙[y(x) ≥ τ] \, p(x) \, dxChoose τ by maximizing expected utility U(τ) balancing lab cost vs. discovery value.
Model discovery as a time‑to‑event process with hazard h(t) raised by AI‑assisted throughput.
S(t) = exp\big(−∫₀^t h(u)\,du\big), \quad E[T] = ∫₀^∞ S(t)\,dtIncreasing h(t) in earlier phases (triage/screening) reduces E[T] and narrows uncertainty bands.
Agent ingests 500+ papers, extracts pathway claims, and produces a ranked hypothesis list. Human review picks 3 for protocol drafting.
Observed: TTI ↓ 70%, candidate yield ↑ 25% (top‑k), zero false citations after review.Containerized QSAR model ranks 10k compounds; top‑200 go to wet lab. Protocols and BOM auto‑generated, edited by PI.
Observed: lab hours per hit ↓ 30%, first‑pass protocol success ↑ 15%.Domain‑tuned agent retrieves payer policies with HITL checkpoints and templated outputs for prior auth packets.
Observed: turnaround time ↓ 50–60% with maintained accuracy under audit.Run sensitive tasks on your machines with the same API used on our managed runners; artifacts are signed for verification.
Every job emits a typed timeline of inputs, tool calls, and outputs. Great for audits, papers, and cross‑lab replication.
Scenario banks per domain with ground truth, rubrics, and HITL toggles. Measure what matters: success, cost, and repair rate.
| Domain | Common AI leverage | Primary risks | Controls |
|---|---|---|---|
| Bio/Chem | Literature triage, surrogate scoring, protocol drafting | Hallucinations, off‑distribution generalization | HITL reviews, retrieval with citations, container limits |
| Healthcare | Policy retrieval, summarization | Incorrect guidance, privacy | Templated outputs, policy grader, PHI controls |
| Media | Briefs, outline generation | Attribution, factuality | Source‑linked RAG, editorial checklists |
Academic or industry lab? We can structure shared benchmarks, provide local runners, and co‑develop processors.
Have a well‑bounded use‑case? We’ll scope a minimal agent/app and measure impact with our evaluation kit.