Platform Platform
System
ConceptsEnginePolicy as codeDeclarationsSafe changeGatewaysIntegrationsObservabilityAdministrationSecurityHuman reviewAudit and evidenceData retentionSecrets and data classification
Controls
Registries and documentationAuthentication and authorizationInjection detectionData redactionCode fingerprintingRole and judge checksContent classificationSpend and loop limitsBusiness rules
Solutions Solutions
By what you do
Sell into the enterpriseControl the AI you run
By industry
Financial servicesDigital assetsInsuranceHealthcareLegalUser-generated content
By discipline
AI governanceTrust and safetyRisk and compliance
Cases Cases Embedded control planeSource-code leakTrading agents over MCPLive firehoseRefund assistant
Compare Compare LiteLLMNVIDIA NeMo GuardrailsOPAROOSTAgent Governance Toolkit
Resources Resources
Guides
Enterprise review questionsPrompt injectionAgent and control layerAgent architecturesDecision system mapAI control maturity model
Standards
Standards OWASP Agent Control StandardEU AI ActPMI AI standardNIST AI RMFERC-8004
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Enterprise-grade AI control plane

Control what your AI is allowed to do. Prove every decision it makes.

Swiftward™ is the control layer for AI agents. Write your policy as versioned code and test a change against your own recorded history before it goes live. Months later, a disputed decision is answered from the record instead of reconstructed from logs.

Runs on your infrastructure. We never receive your data. What your security team can verify.

Book a demo See the platform

Built by Konstantin Trunin. He has spent a career on declarative, high-load platforms with deterministic engines, in regulated industries like finance and healthcare, in logistics, and in enterprise security reviews. Swiftward is that approach again, for policy. Konstantin on LinkedIn →

YAML, versioned, backtestable
refund_needs_an_operator:
  all:
    - path: "signals.refund_amount"
      op: gt
      value: 2000
  effects:
    verdict: flagged
    actions:
      - action: hitl/create_case
        params:
          queue: "finance"
          timeout_duration: "24h"
          timeout_decision: "reject"
flagged dec_8f3a91c4 · awaiting operator review
How decisions are made

Read the signals, decide, act. A person steps in where you want one.

Most tools stop after the second step and hand you a score. Every event leaves one record: the signals it read, the rule that decided, and the frozen version that rule belonged to.

enrichment
You choose what it reads
What the event already carries, plus the signals a rule asks for: a counter the engine kept, a score from a model, or a call to your own service.
decision
One versioned policy
The engine is deterministic. Where you want judgment, a rule calls a model, and the record shows which one decided.
human review
When you want a person
The rule opens a case. The reviewer's decision is recorded against it, and can re-enter the engine as its own event.
enforcement
Two ways to apply it
A gateway blocks, redacts or routes the call as it happens. Or take the verdict and enforce it in your own system.
Enterprise foundation

Enterprise-grade from day one.

Most policy tooling is built SaaS-first, with enterprise bolted on later. Swiftward is the other way around. Embed it under your own product, and a security review finds all of this already there:

On-prem SSO RBAC / ABAC / field-level Multi-tenancy Secrets management Append-only audit trail
Who buys this

Your software decides. Someone outside your team makes you answer for it.

By industry: Financial services · Digital assets · Insurance · Healthcare · Legal · User-generated content

By discipline: AI governance · Trust and safety · Risk and compliance

Source code that must not leave the building, in chip design, defense and quantitative funds: code fingerprinting.

Not for you if nobody outside your team ever asks why a decision went the way it did. That is a real answer, and it saves us both a call.

Changing a rule

Change a rule without guessing what it will do.

  1. Author a ruleby the policy owner
  2. Backtest iton your recorded history
  3. Read what flippedevent by event
  4. Promoteor roll straight back
  5. Prove it afterwardsa record that shows any edit
author a rule by the policy owner backtest it on your recorded history read what flipped event by event promote or roll straight back prove it afterwards a record that shows any edit Each step exists somewhere on its own. Here they are one engine.

How a change is tested and promoted

The architecture

You declare the top of the stack. The engine underneath does not change.

Which gateways you switch on, which rule packs you load, the queues and screens your people work in: configuration, not code. The engine and the foundation under it are the same binary in every deployment.

you declare
Your policies, workflows, screens and branding
declared, not coded
you declare
Which gateways you switch on
LLM · MCP · network · FIX · SCM · blockchain
every deployment
Policy engine
versioning · backtest · shadow · A/B · rollback · human review · retries · evidence
every deployment
Enterprise foundation
on-prem · SSO · RBAC/ABAC/field-level · audit · multi-tenant

See how this compares to assembling it yourself on OPA, LiteLLM, ROOST, or Microsoft's toolkit

Under the hood

The same grammar, whatever the decision.

YAML, versioned, backtestable
signals:
  pii:
    udf: dlp/scan
    params:
      entity_types: [EMAIL_ADDRESS, PHONE_NUMBER, CREDIT_CARD]

rules:
  the_model_never_sees_the_real_value:
    condition: len(signals.pii.findings) >= 1
    effects:
      verdict: approved
      response:
        redact_input: true
        redaction:
          findings: "{{ signals.pii.findings }}"
  • Versioned policy lifecycle: draft, candidate, frozen, archived. Rollback by naming the previous version.
  • Backtest: a candidate version runs over your recorded history, and its verdicts are diffed against the version live today.
  • Shadow and A/B: a shadow arm decides nothing while it runs, and an A/B split is deterministic.
  • Stateful decisions: counters, rate limits, sliding windows, circuit breakers.
  • Human review: a rule opens the case, and the queue, the screens and the answer on timeout are declared.
  • A failed event is held for retry, not dropped. Events split across workers as they arrive, with Kafka and ClickHouse added when the volume needs them, and the engine unchanged.

Policy is the last thing in your stack with no engine under it.

Feature flags got one. Workflows got one. The decisions your software is not allowed to get wrong still sit in application code, where nobody can version them, test a change, or prove later what they did. AI is where this hurts most today, so this site is about agents. The engine does not care what kind of decision it is: a post, a payment, a claim, a tool call.

Provable, not a slogan
The record

Decisions are hash-chained, and a signed checkpoint over the chain can go to someone outside the deployment: your own archive, an auditor, a counterparty. Edit a decision later and the chain stops matching the checkpoint they hold.

Each case here names the system, the rules it ran under, and what they decided.

Bring us the decisions you need to control.

A 30-minute call. Pick the hardest one, and we go through how the engine would handle it.