VORANOXINC.

Architecture

For the CTO, the CISO, the appointed actuary.

This page is the standing technical posture every Voranox platform adheres to. The policy view lives at /trust; what follows is the engineering substrate that makes the policy enforceable in code, in deployment, and in operation.

Last reviewed: April 2026. Engagement-specific deviations are recorded in each Engagement Memorandum.

01

Substrate · One platform per industry

Each Voranox platform is a discrete, independently deployable system. Sterling and Vitae do not share data planes, model registries, or deployment topologies. They share the firm’s engineering standards and the Voranox doctrine — nothing else.

This is a deliberate architectural choice. Cross-industry data flow is precisely where regulated industries are least able to accept consolidation. Keeping platforms separate at the substrate level means the bank’s data never sees the hospital’s, and the ministry’s never sees the defense agency’s, by construction rather than by access policy.

02

Data sovereignty · The customer owns the substrate

The customer chooses the deployment topology. Voranox platforms are engineered to be portable across on-premise, sovereign-cloud, hyperscaler, and air-gapped environments. We engineer to the open-standards substrate of the cloud, not to the lock-in surface of any single hyperscaler.

Customer data never leaves the customer’s chosen jurisdiction. Cryptographic key custody respects the institutional trust boundary — bring-your-own-key, hold-your-own-key, and customer-managed encryption are the default posture, not enterprise upsells. Where mandate requires, confidential compute environments are supported.

03

Model lifecycle · Evaluation, governance, and replacement

Every model in a Voranox platform is evaluated against the industry it serves — not against a generic benchmark. The evaluation regime is constructed jointly with the customer’s domain experts and is rerun continuously in production.

Models are versioned, signed, and immutable. Every model decision produces an audit record carrying the model artifact hash, the input data hash, the policy in force, and the resulting output — so that any past decision can be reproduced with cryptographic certainty against the model and data in force at the time.

Model replacement is an institutional event, not a vendor event. The customer’s governance body approves promotion to production; rollback is one operation.

04

Deployment topology · Where the platform actually runs

Voranox platforms support four standing deployment topologies and hybrids of them:

  • On-premise — inside the customer’s data centre, operated by the customer or jointly by the customer and the firm under a Managed Deployment Agreement.
  • Sovereign cloud — national-cloud or regulated-cloud topologies (e.g. AWS GovCloud, Azure for Government, BleuKub, GAIA-X-aligned providers).
  • Hyperscaler — the customer’s account on AWS, Azure, or GCP, in the customer’s chosen region.
  • Air-gapped — for the defense and intelligence engagements where the platform must operate without external network connectivity.

Topology choice is recorded in the Engagement Memorandum. The firm engineers the platform to be portable across topologies; moving between them is a planned migration, not a rewrite.

05

Integration · Standards over proprietary surfaces

Voranox platforms integrate via the standards the customer already runs — OAuth 2.0 / OIDC for identity, SAML 2.0 for SSO, SCIM for provisioning, FHIR for clinical data, FIX for trade traffic, ISO 20022 for payments, eIDAS for sovereign identity, IIIF for cultural collections. Industry-native integrations, not generic webhooks.

Every platform exposes a documented, versioned API. The MCP interface published at /api/mcp for the directory is the same pattern that engagement-specific platforms expose privately to authorized agents inside the institution.

06

Observability & audit · Auditability is a property of the substrate

Every model decision, data access, and platform action produces a tamper-evident record. Records are cryptographically chained so that retroactive modification is detectable by the customer’s own internal audit, the regulator with jurisdiction, or any oversight body the institution recognises.

The audit substrate is independent of operational logging. An outage in operational telemetry does not affect the integrity of the audit chain.

Engagement-specific observability stacks integrate with the customer’s standing tooling — Datadog, Splunk, Elastic, or the customer’s own SIEM — rather than imposing a Voranox- proprietary surface.

07

Resilience · The platform survives the bad day

Voranox platforms are engineered to graceful degradation: a failure in any single component reduces capability gracefully rather than failing the whole. The bedside co-pilot must still support the clinician when the cited-evidence service is unreachable; the trading desk must still see exposures when the market-data feed is degraded.

Recovery posture is engineered to the customer’s institutional standards — Recovery Time Objective and Recovery Point Objective are negotiated in the Engagement Memorandum and tested under the customer’s standing disaster-recovery programme.

The firm holds itself to a Tier-1 operational resilience standard for the platforms it operates directly, including continuous backups, region-redundant restore drills, and quarterly tabletop exercises against the engagement’s threat model.

For diligence

Detailed engineering documentation under NDA.

Full architecture diagrams, threat models, SOC 2 reports, model documentation, and data-processing addenda are available to evaluating institutions under NDA.

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