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Verification infrastructure for AI-generated science

Computation is abundant. Evidence is not

Genomarker is the verification layer between scientific computation and scientific claims. It catches methodological failures before they become results, packages every analysis into durable, verifiable evidence — and independently replays the computation so no one has to trust the analyst, the pipeline, or the AI that produced it.

Compute Verify Preserve Replay Prove

Genomarker Assurance StatementGM-2026-08-14-8F29E1Specimen

Analysis
Differential expression
Assurance profile
GM-BIOMARKER-DE-1.3
Input integrity
PASS
Study design
PASS
Statistical methodology
PASS · DISCLOSED FINDING
Confounder control & leakage
PASS
SAP alignment
PRE-SPECIFIED
Execution & provenance
VERIFIED · COMPLETE
Independent replay
REPRODUCED_EQUIVALENT
Temporal reproducibility
GRADE A
SIGNED · ED25519 · VERIFIABLE OFFLINEgenomarker verify …8F29E1.gmk
Fig. 1 — A signed assurance statement. Genomarker makes precise, versioned claims about what was verified — and states plainly what it does not establish.

The problem

The question is no longer “can this analysis be run?”

It is: can this result be trusted, inspected, and independently reproduced after the person, AI agent, software environment, or infrastructure that produced it is gone? Reproducibility fails in specific, recurring ways:

  1. Methods that were never defensible

    The wrong statistical test, an unsupported design, a violated assumption — chosen silently and reported confidently.

  2. Confounding and leakage no one caught

    Batch tracks treatment; test data leaks into training. The result looks strong precisely because it is wrong.

  3. Analyses that drifted from the plan

    What was pre-registered and what was run quietly diverge. Post-hoc becomes indistinguishable from pre-specified.

  4. Provenance that says what, not how

    Parameters unrecorded, software versions lost, the exact input data no longer identifiable.

  5. AI decisions nobody can inspect

    An agent made an inferential choice mid-analysis. The agent is gone. The justification never existed.

  6. Results that expire with their software

    Rerunnable today, unreproducible in five years. The environment decays; the claim stays in the literature.

COMPUTATION

Scientists, pipelines, and increasingly capable AI agents — producing more analyses, faster and cheaper than ever.

GENOMARKER

The missing layer: methodology, execution integrity, provenance, preservation, and independent replay.

SCIENTIFIC CLAIM

Publications, biomarker programs, investment decisions, and regulatory filings that depend on computational results being true.

The assurance model

Precise claims, not “certified correct.”

Scientific truth cannot be determined automatically from a workflow. So Genomarker never issues a vague verdict — it evaluates every analysis across independent assurance dimensions, governed by three explicit contracts.

AnalysisSpecWhat exact computation should be performed?

  • Content-hashed inputs
  • Method, implementation, version
  • Parameters, covariates, seeds
  • Deterministically hashable

Scientific Analysis PlanWhat did the scientist intend before seeing the result?

  • Pre-registration constraints
  • Pre-specified vs. post-hoc
  • Amendments tracked & signed
  • Deviations surfaced, never hidden

AssuranceProfileWhat must be true before a claim can be made?

  • Versioned scientific rules
  • Evidence & replay requirements
  • Permitted exceptions, on record
  • e.g. GM-BIOMARKER-DE-1
Assurance dimensions
Assurance dimensionThe question it answers
Input integrityDo we know exactly what data entered the analysis?
Study designDoes the experimental design actually support the contrast being tested?
Statistical methodologyWere appropriate methodological safeguards applied?
Confounder control & leakageWere detectable confounders and information leakage caught?
SAP alignmentDid the analysis follow the pre-registered scientific plan?
Execution integrity & provenanceDid the requested computation execute as specified — and can we reconstruct what happened?
Independent replayCan it be re-executed independently of the original execution?
Temporal reproducibilityIs enough computational state preserved for long-horizon replay?

How it works

Assurance across the whole lifecycle.

  1. Ingest

    Content-address every input. Identity before analysis.

  2. Pre-execution

    Versioned assurance rules evaluate the spec. Blocking findings stop bad science before it runs.

  3. Execution

    The requested computation runs exactly as specified, in a recorded environment.

  4. Evidence

    Findings, provenance, environment, and results assemble into a portable, signed package.

  5. Preservation

    Every replay dependency classified and retained. Graded, not assumed.

  6. Replay

    An isolated environment re-executes the analysis and attests to the outcome.

External proof

Illustrative figures — audit in progress

We audit published science we had no role in preparing.

The Public-Corpus Reproducibility Audit re-executes published computational biology analyses through the Genomarker assurance model — an adversarial test of the platform on work it did not produce, publishing as a preprint and an interactive public benchmark.

7

Published analyses independently re-executed

of 9 papers audited · 1 refused with stated reason · 1 unauditable by construction

57

Structured assurance findings emitted

1 hard refuse · 11 block with override · 39 warn · 6 ok

12

Material issues capable of changing interpretation

block-with-override + hard-refuse findings

Illustrative figures — audit in progress

71%

Detectable before execution, from the spec alone

Illustrative figures — audit in progress
Independent replay outcomes across the corpusIllustrative figures — audit in progress
  • REPRODUCED_EXACT38%
  • REPRODUCED_EQUIVALENT33%
  • DIVERGED17%
  • NOT_REPLAYABLE12%

The long horizon

Results should not expire when their software does

The north-star demonstration: a computation sealed in 2026 carries enough preserved state that an independent researcher in 2036 — without the original scientist, agent, or application — can verify, reconstruct, and replay it.

2026

Original execution

  1. AnalysisSpec proposed — by a scientist or an AI agent
  2. Methodological problem detected; execution blocked
  3. Machine-readable finding returned; plan corrected
  4. Analysis executed; signed evidence generated
  5. Environment and dependencies preserved — Grade A
  6. Evidence published as GM-2026-08-14-8F29E1

2036

Ten years later — original researcher not required

  1. Independent researcher retrieves GM-2026-08-14-8F29E1
  2. Cryptographically verifies the evidence package
  3. Inspects the original scientific decisions
  4. Reconstructs the computational environment
  5. Replays the computation against preserved evidence
  6. REPRODUCED_EQUIVALENT

One substrate, three surfaces

Wherever computation happens, the evidence is the same.

For scientists & research teams

Genomarker Runtime

Supported computational analyses with methodological assurance built in. Every run produces provenance, a signed evidence package, and a replay path — through the web, API, SDK, or CLI.

  • Bioinformaticians
  • Translational research groups
  • Core facilities

For platforms & AI agents

Genomarker Assurance API

The external system orchestrates; Genomarker constrains, records, and verifies. Agents that cannot be perfect scientists can still operate through a layer that makes their computation inspectable.

  • AI scientific platforms
  • Pharma internal tools
  • Workflow systems

For evaluators of scientific claims

Genomarker Diligence

Service-assisted evidence review: assurance statements, structured findings, replay attestations, and a verdict report for computational claims you did not produce.

  • Life-science investors
  • BD & pharma diligence
  • Translational reviewers

Company

Built by people who have lived the reproducibility problem.

Salar Sayyad

Founder & CEO

Architect of the entire Genomarker platform — the assurance kernel, evidence format, and replay system — built solo, full-time since Feb 2026. 10+ years as an AI engineer, data scientist, and product manager; BSc Computer Science, University of Toronto.

Dr. Saed Sayad

Scientific advisor · AI & bioinformatics

PhD in biochemistry & bioinformatics; adjunct professor at the University of Toronto with 25+ years in machine learning and predictive modeling, focused on biomarker discovery and precision medicine. Inventor of the Real Time Learning Machine and author of the widely used An Introduction to Data Science. Advises on statistical methodology and the assurance rule library.

Dr. Mark Hiatt, MD, MBA, MS

Scientific advisor · clinical & regulatory

Stanford-trained physician executive in precision medicine — former VP of Medical Affairs at Guardant Health, SVP of Market Access & Strategy at BostonGene, and CMO at RadSite; 75+ articles and book chapters, 150+ conference presentations. Advises on clinical, regulatory, and market-access context for evidence standards.

Turn your computation into evidence.

Genomarker is in controlled early access while the public corpus audit completes. Access is reviewed — for research teams, platform partners, and diligence engagements.