Skip to main content

AuspexAI Tenant SDK

CI

The researcher surface of the AuspexAI volunteer compute network: everything a research tenant needs to author an experiment, submit it to the live coordinator, drive it to convergence, and walk away holding a cryptographically verified copy of the data — receipts, a Rekor-anchored attestation, and a signed custody record included.

Python ≥ 3.11, Apache-2.0. Install from PyPI:

pip install auspexai-tenant
# with the analysis surface (pandas/Parquet evidence loader):
pip install "auspexai-tenant[analysis]"

Most researchers don't install the SDK directly — the researcher onramp (curl -fsSL https://getresearcher.auspexai.network | bash) provisions it alongside the dashboard. Releases are also on the releases page, Sigstore-signed.

New researcher? The full front door — install, apply for a tenant via auspexai-tenant apply (GitHub device flow, no key material to paste), and your first verified run — is ONBOARDING.md.

The researcher lifecycle

The SDK covers the whole arc. Each stage works today against the live coordinator (https://coord.auspexai.network).

1. Author

  • Published wire contracts (JSON Schema + CDDL, immutable per the honor-forever versioning policy) for manifests, work units, executor output, results, reducer decisions, and receipts — with strict Pydantic models for all of them. Tenants may consume the SDK or implement the published contract independently.
  • ExecutorHarness — wrap your science in a run_one(unit, models_dir) -> dict function and the harness handles the worker invocation contract (a working tenant is ~30 lines; see examples/synthetic_tenant/).
  • ReducerHarness — same pattern for custom reduction.
  • auspexai_tenant/lite.py — a zero-dependency, stdlib-only, Python 3.10-safe mirror of the harness, designed to be vendored into your package so your executor runs in the worker sandbox without installing the SDK there. Includes InferenceClient for LLM-inference tenants: chat against the model the worker serves over a sandbox-local socket, under the generation policy your signed manifest declares (v0.2 M1). Greedy (temperature 0) is the default — byte-for-byte deterministic, seed/num_predict/num_ctx whitelisted. Seeded sampling (temperature > 0 with a pinned seed, plus optional top_p/top_k/min_p — manifest v0.5) is honored per-request by the worker; it requires a non-agreement collection mode (process-only at replication 1), since sampled replicas legitimately differ.
  • Static work-unit packing (tar_writer/tar_reader) and package-digest helpers that match the worker's verification byte-for-byte.

2. Sign & submit

  • Ed25519 tenant keypair (key generate / key pubkey); every API call is signed (RFC 9421 HTTP message signatures) — no passwords, no tokens.
  • experiment launch — build → sign → submit → await approval → drive, one command (experiment build / submit / run are the step-by-step path; manifest validate/sign/upload remain the low-level primitives). Manifests are immutable once submitted (manifest-swap protection: work units bind the manifest hash); certified starters auto-clear, everything else is approved by a maintainer before any work is scheduled.
  • Pre-registration (manifest v0.4) — an optional [pre_registration] block declares the hypothesis, analysis, and stopping rule before data exists; the coordinator anchors it in the public transparency log at submit, so the bundle later proves design ≺ data. The comparison envelope is referenced from the [feature_schema], never re-declared. Required for a citable/DOI'd result; if the analysis changes post-data, experiment deviate records an append-only, signed deviation — honest exploratory work, never a silent edit.
  • Model catalog: model catalog surfaces the network's bottom-up model catalog — the emergent set of models the active workers declare they serve.

3. Drive

  • run_until — the autonomic driver: submit a round, fold results into a checkpointable aggregate (Counter/Mean/Histogram or your own) as they arrive, test your convergence condition, generate the next batch. Resumable via a round-atomic journal; wakes on an SSE doorbell instead of hot-polling; pluggable stall policy (abort / finalize-partial / keep waiting).
  • CLI: experiment run <id> --driver yourmodule:build drives a whole adaptive experiment headlessly. experiment reduce batch-reduces a completed consensus set.

4. Watch

  • experiment list / status / results (consensus by default, --raw for all replicas) / receipts, plus an anonymized activity rollup (contributor counts, replication fill — never volunteer identities).

5. Verify — the part you can't get from a rented GPU

Every completed experiment yields a result-set attestation: a Merkle root over the per-unit consensus set, COSE-signed by the network's published key and anchored in the public Sigstore Rekor transparency log. The SDK verifies all of it independently:

  • experiment attestation --check-rekor --verify-against-results — recompute the root from your own pulled results, check the signature against the published signer roster, and confirm public log inclusion.
  • v1 attestations additionally bind each work unit's input hash into the leaves: "result R was produced from parameters P" is cryptography, not a database row.
  • Per-result worker signatures — the only signatures in the chain not made by the coordinator — verify from the bundle alone.
  • Tolerance evidence (C7): a within_cell_tolerance unit is attested by its deterministic representative's hash; the bundle's unit_consensus block lets the verifier recompute it from bytes in hand, with the per-feature spread + outlier count as the researcher-facing evidence.
  • Pre-registration: bundle verify prints pre-reg: (the anchored design is this manifest's design), design<data: (the design's Rekor anchor precedes the results' — pending until the hourly sweep anchors both), and deviations: N declared (each record's declarer signature + anchor verify; zero = the pre-registered analysis stands).

6. Take custody & analyze

  • experiment export --verify downloads the evidence bundle — results + work-unit inputs + receipts + attestation + Rekor proof + a signed proof-of-transfer — and runs the full verification chain on receipt. Collection transfers data custody to you: the network can re-verify your bundle forever, but after age-off it never re-delivers. Your verified copy is the durable copy.
  • bundle verify <file> — re-verify a saved bundle any time, offline, with no coordinator. Hand the file and the command to a reviewer.
  • evidence.load_verified(bundle) — run the chain, then get a tidy pandas DataFrame (inputs as input.* columns, outputs as output.*). There is deliberately no force flag: analysis begins from a verified dataset or it doesn't begin. bundle table <file> -o results.parquet is the no-Python path to Excel/Tableau/R. See examples/evidence_loader.ipynb.
  • Two researcher field guides — read both:
    • Reading your evidence (trust — can I trust this number?): each verified row carries integrity_basis, ran_under (containment), and served_weights, and the experiment carries an apparatus footprint. Stratify, don't pool; weight by replication + independence; treat divergence as signal, not failure; correct for the footprint.
    • Analyzing your results (interpretation — what does it mean, how do I analyze it?): the data dictionary (bundle table --data-dictionary), the role discipline (anchor vs summary), the .valid flag, the analysis recipes (stratify-by-provenance, per-probe drift, inter-experiment drift-series), and which tools to use. Vigiles is the worked exemplar.

CLI quick reference

Group What it does
key Ed25519 tenant keypair (generate, pubkey)
manifest validate, sign, upload an experiment manifest
experiment build, submit, launch (one-command lifecycle), list, status, run (autonomic driver), results, receipts, attestation, reduce, export, deviate (declare a signed deviation from the pre-registered design)
bundle verify a saved evidence bundle offline; write it as a CSV/Parquet table
model browse the network model catalog
receipts decode/pretty-print CBOR receipts

Every command has --help with the full contract.

Examples

Status

Open beta. The coordinator is live and experiments run on real volunteer hardware end-to-end (work-unit dispatch, consensus, receipts, live Rekor anchoring, evidence-bundle custody). The network is publicly installable: researchers self-onboard with the getresearcher one-liner and apply for a tenant via auspexai-tenant apply (GitHub or ORCID device flow — no invitation, no key material to paste). A maintainer reviews the application against the Research Ethics Policy; from there a certified starter runs with no code review — the safest first run — while bringing your own code is reviewed more closely. Questions about running research on the network? Email contact@auspexai.network.

Scope & license boundary

The Tenant SDK is the contract between tenant research code and the AuspexAI platform. It is intentionally a thin client over a published data + subprocess contract: tenants consume the SDK's stable surface (or implement the published contract independently); the AGPL-3.0 platform (auspexai/platform, auspexai/worker) runs on the other side of that contract. Tenant project modules authoring against the SDK are not derivative works of the AGPL platform — the split follows the published-contract pattern used by MongoDB drivers, Grafana plugins, and Sentry SDKs (copyleft on the server, permissive on the SDK). See the AuspexAI Principles & Scope §5.2 for the structural argument.

Apache-2.0 for the SDK. Tenants license their own research code however suits them.

Governance & policies

  • Governance — roles, decision rules, recruitment, conflict of interest
  • Code of Conduct — community standards, reporting, escalation pathway
  • Contributing — DCO sign-off, PR workflow, RFC requirement for substantial changes
  • Research Ethics Policy — what research can run on the network and how it's reviewed
  • Tenant Terms — including the results-custody model this SDK implements

Download files

Download the file for your platform. If you're not sure which to choose, learn more about installing packages.

Source Distribution

auspexai_tenant-0.6.37.tar.gz (220.0 kB view details)

Uploaded Source

Built Distribution

If you're not sure about the file name format, learn more about wheel file names.

auspexai_tenant-0.6.37-py3-none-any.whl (187.5 kB view details)

Uploaded Python 3

File details

Details for the file auspexai_tenant-0.6.37.tar.gz.

File metadata

  • Download URL: auspexai_tenant-0.6.37.tar.gz
  • Upload date:
  • Size: 220.0 kB
  • Tags: Source
  • Uploaded using Trusted Publishing? Yes
  • Uploaded via: twine/6.1.0 CPython/3.13.12

File hashes

Hashes for auspexai_tenant-0.6.37.tar.gz
Algorithm Hash digest
SHA256 76d068ab835b4c6ca37c48b4b6da2f7fcf5cad1f785e9f63e129011b487b5347
MD5 852075b35830a2b2942a8b2544a791f0
BLAKE2b-256 960eee8b69a26fb6857775e2f9e8b99323df55406c661455bd35d4cb89493219

See more details on using hashes here.

Provenance

The following attestation bundles were made for auspexai_tenant-0.6.37.tar.gz:

Publisher: release.yml on auspexai/tenant-sdk

Attestations: Values shown here reflect the state when the release was signed and may no longer be current.

File details

Details for the file auspexai_tenant-0.6.37-py3-none-any.whl.

File metadata

File hashes

Hashes for auspexai_tenant-0.6.37-py3-none-any.whl
Algorithm Hash digest
SHA256 427494b08f61303ec93ec2ec70592aa03260597421dc55bee6f7c8c1d1baef18
MD5 ddbf8f2fae005dd2f0350c35250037e2
BLAKE2b-256 c36829f633bc053575e8740588b7344b16cbde0411df77426e8fb76c70ba8b1b

See more details on using hashes here.

Provenance

The following attestation bundles were made for auspexai_tenant-0.6.37-py3-none-any.whl:

Publisher: release.yml on auspexai/tenant-sdk

Attestations: Values shown here reflect the state when the release was signed and may no longer be current.

Release history Release notifications | RSS feed

Supported by

AWS Cloud computing and Security Sponsor Datadog Monitoring Depot Continuous Integration Fastly CDN Google Download Analytics Sentry Error logging StatusPage Status page