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Reproducibility and Provenance

Scientific Research

Scientific AI workflows need more than model accuracy. They need reproducibility, provenance, and a way to share results across institutions without asking every reviewer to trust a private runtime. Aethelred gives research teams TEE, zkML, and hybrid verification plus Digital Seals that can anchor peer review, sealed result exchange, and auditable experiment history.

ReproducibilityConfidential DataDigital SealsCross-Lab Validation
CURRENT REFERENCE ARCHITECTURE

Sealed experiment outputs

Digital Seals bind model hash, input hash, output hash, timestamp, and consensus evidence into one verifiable record.

Confidential dataset handling

TEE-backed blind compute keeps sensitive research inputs inside an attested execution boundary.

Lab-to-lab portability

Seals are relayable across IBC-compatible chains and queryable through SDKs and APIs.

5 SystemsOptional zkML proof coverage
4 TEEsConfidential compute platforms
10 ServicesLocal devnet for rehearsal

Workload Pressure

Why this workload is hard

Research teams need verifiable results that survive peer review, institutional handoffs, and restricted-data constraints.

Reproducibility breaks down fast

When code, model state, environment details, and output commitments are separated, reviewers inherit narrative claims instead of computation evidence.

Restricted data cannot move freely

Cross-lab studies and clinical or regulated datasets need blind-compute boundaries instead of broad dataset sharing.

Collaboration needs shared proof

Institutions need a portable record that another team can verify without re-trusting the original runtime or operator.

Why Aethelred Fits

Map the workload to the current protocol surface

The protocol fits research when the goal is to prove what ran, preserve confidential inputs, and expose result provenance as a first-class artifact.

FIT

Current Protocol Fit

Digital Seals for experiment provenance

A seal can act as the canonical record of an experiment outcome, including the model hash, output commitment, block height, and validator evidence.

Seal IDResult Provenance
FIT

Current Protocol Fit

TEE or hybrid execution for sensitive studies

Confidential workloads can run inside SGX, Nitro, SEV-SNP, or H100 Confidential Computing, with zkML added when mathematical proof is also required.

Blind ComputeHybrid Mode
FIT

Current Protocol Fit

Research does not need a separate stack

The same SDKs, APIs, local devnet, and seal verification tools used for product workloads can back reproducible research pipelines.

SDKs10-Service Devnet

Reference Workflow

A current-state flow for research workloads

A practical research workflow looks like sealed execution, not just a paper appendix.

STEP 01

Package the experiment boundary

Bind the model version, input dataset reference, and execution assumptions before submission.

Model HashInput Hash
STEP 02

Run with the right verification mode

Use TEE for confidential data, zkML for mathematical proof, or hybrid mode when both must agree.

TEEzkML
STEP 03

Promote the result into a Digital Seal

Once supermajority agreement is reached, the result becomes a verifiable computation artifact rather than an internal log line.

>= 2/3 + 1Digital Seal
STEP 04

Share the seal instead of a trust me claim

Reviewers, collaborators, and downstream systems can verify the output through APIs, SDKs, or on-chain interfaces.

APISDK Verification

Protocol Mapping

Which Aethelred surfaces matter most

These are the protocol surfaces that matter most in research-oriented deployments.

RequirementProtocol SurfaceWhy It Matters
Reproducible output recordDigital SealsSeal records preserve hashes, provenance, agreement power, and validator evidence in one portable object.
Confidential dataset handlingTEE attestationBlind compute prevents validators from seeing plaintext inputs while still producing auditable evidence.
Mathematical proof of executionzkML / hybrid verificationFive proof systems are available when reviewers need proof-backed result reproduction.
Lab-to-lab verification pathSDKs, APIs, and IBC relayResults can be checked programmatically and consumed outside the originating environment.

Move from research prototype to a sealed verification flow.

Start in the developer docs, rehearse the workload in Infinite Sandbox, and use the current verification surfaces instead of carrying the old standalone research mock forward.

Open Developer Docs