Cognitive Orchestrator
Goal-directed reasoning, tool selection across enterprise APIs, confidence scoring per step, and the human-machine interface with a global halt control.
Regulated AI Navigator
Turn an AI use case into its EU AI Act risk class, the regulations it triggers, the obligations, the architecture and the evidence you owe — in about two minutes.
Community-curated knowledge graph, peer-reviewed by experts across law, engineering and governance. Every change traceable →
The layered architecture that replaces frontend + database + manual operations. Each layer carries a specific statutory hook — oversight that is not in the orchestrator cannot stop an executing agent. Everything on this page is assembled from the existing knowledge graph — each layer, threat, pattern and use case links back to the node it came from, so you can audit the claim rather than take it. RAIN does not enforce anything at runtime; it maps which obligation attaches to which execution layer and what evidence that layer owes.
Goal-directed reasoning, tool selection across enterprise APIs, confidence scoring per step, and the human-machine interface with a global halt control.
Dynamic routing between small fine-tuned models and frontier models; the routing policy is a documented design decision, not an implementation detail.
Agents execute inside the corporate perimeter and reach tools over MCP with context scoped to the minimum attributes required, instead of shipping raw records to third-party endpoints.
Confidence minima, disbursement and margin caps, variance thresholds. Breaching a limit halts all sub-agents and reverts to a safe state rather than continuing at degraded confidence.
WORM-grade event logs of decision paths, API calls, prompt changes and data access — each bound to a named supervising natural person, never a shared service account.
These are the failure modes that only appear once a system acts rather than answers. Open any node to see which controls and patterns in the graph derive from it.
Over-broad rights/functions of autonomous agents lead to uncontrolled actions.
Untrusted external input + privileged access + irreversible external actions in one agent: any successful context manipulation becomes a potentially catastrophic incident. Break at least one leg architecturally.
One agent's erroneous intermediate output (hallucination, goal drift from the assigned objective over multi-step plans, poisoned context) propagates unchecked through downstream agents and triggers automated cascade decisions — emergent behavior no single-agent review ever approved, with unclear liability boundaries between agent operators. Grows with orchestration depth (central orchestrator vs decentralized message bus) and autonomy tier.
A voice or chat agent is perceived as human, or claims capabilities and commitments it cannot honour, breaching transparency and consumer-protection duties.
Central chokepoint for agent tool traffic: default-deny tool ACLs (tools/list vs tools/call), schema & argument inspection, credential injection from vault, rate limits, full audit mirror. Regulatory root cause: the base MCP protocol enforces no authentication or authorization at protocol level — Host/Client/Server topology with Tools/Resources/Prompts primitives ships without an identity layer, so a policy-enforcing gateway is not optional hardening but the only place Art. 12/15 duties can be enforced for tool calls.
Unique cryptographic identity per agent; short-lived, finely-scoped tokens (OAuth 2.1 + PKCE); On-Behalf-Of flow so an agent can never see more than its triggering user.
Agents never call target APIs directly: they emit typed proposal objects (endpoint, params, risk estimate, rationale) validated by the governance layer before execution; idempotent execution layer.
At oversight gates the complete operational state — working memory, conversation history, tool arguments, intermediate artifacts — is serialized into a durable checkpoint (fast KV store for sub-ms lookups, transactional backend as recovery anchor, vector store for semantic caching of past human decisions). On approval the agent deserializes and resumes at the exact step; matched precedents can shortcut re-planning entirely.
Tools tagged read-only / reversible-write / irreversible-write; controls layer routes each action to the matching oversight mode. Mode selection is per action type, never per agent.
Autonomous supervisory agents outside the supervised agent's reasoning loop: stateful threat engines with graph-based cross-session history (catch multi-turn injection, gradual exfiltration, incremental privilege escalation), event-driven exposure visibility (permission drift, new connectors), and contextual risk correlation into unified issues — interception before execution, not post-hoc logging.
Input and output validation as two independent gates (MLCommons-hazard-class semantic filters, groundedness checks, structural validators: LLM Guard sub-ms–10 ms, Llama Guard <90 ms, NeMo <50 ms, Guardrails AI 50–200 ms). Latency economics decide the architecture: sequential gate chains add 300–800 ms per agent action; parallel evaluation collapses total added latency to the slowest single check — run independent checks concurrently, reserve sequential ordering for true dependencies.
Run governance controls in observe-and-score mode before enforcement: the policy engine and guardrails evaluate every agent action and log verdicts without blocking, yielding empirical false-positive/negative rates and calibrated thresholds. De-risks the enforcement cutover, produces baseline evidence for Art. 9 risk estimation, and is the standard migration path when retrofitting controls onto a live workflow.
For lower-risk batch workflows, agents execute autonomously while auditors review a statistically representative random sample per batch to track accuracy, error classes and drift.
The reasoning and control plane of an agentic workflow: goal decomposition, tool selection across enterprise APIs, confidence scoring per step, and a human-machine interface exposing progress, limitations and a global halt. It is the architectural home of AI Act Art. 14 oversight — oversight that lives only in a downstream UI cannot stop an executing agent.
Execution agents run inside the corporate perimeter and reach tools through the Model Context Protocol instead of shipping raw records to third-party model endpoints. Context is scoped to the minimum attributes the task needs, which is how data minimisation (GDPR Art. 5(1)(c)) and Art. 25 privacy-by-design survive multi-tool agent orchestration.
Autonomy is bounded by pre-configured limits — variance thresholds, disbursement caps, margin floors, confidence minima. Crossing a limit halts execution and routes the case to a named human with the synthesised context, rather than letting the agent proceed at degraded confidence.
Each of these carries a full compliance profile — risk class, triggered regulations, obligations, blueprint and the evidence the deployment owes.