Regulatory Coverage

Framework Coverage Index

RCAN protocol provisions mapped to applicable regulatory frameworks for physical robot AI systems. The labels refer to protocol-layer technical controls only. Organizational, procedural, and regulatory obligations remain the responsibility of the provider and deployer.

Conformance is not certification.

Conformance to RCAN tracks (L1–L4 protocol, Gateway Authority, HIL Runtime Safety) is self-asserted via signed bundles and independently replayable from those bundles. Conformance is not certification. Certification requires audit by a qualified third-party body, which is intentionally out-of-scope for the foundation in 2026.

Provides records for β€” RCAN defines records an implementation can produce as evidence toward the requirement
Supports β€” RCAN defines technical controls relevant to part of the requirement
In progress β€” the RCAN provision is not yet specified

None of these labels means that a system meets the requirement. Most of each obligation is organizational and stays with the provider or deployer, and whether a system meets it is decided through their own conformity assessment, which RCAN does not perform.

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EU AI Act (2024/1689)

Applies to high-risk AI systems. A robot can be high-risk under Art. 6(1), as or within a safety component of a product covered by Annex I law such as the Machinery Regulation, or under Art. 6(2) if its use is listed in Annex III. The two routes carry different obligations and application dates; registration under Art. 49, for example, applies to Annex III systems.

Article Requirement RCAN Provisions Coverage
Art. 9 Risk management system β€” identify and mitigate known and foreseeable risks across the system lifecycle Β§16.3 confidence gates (per-scope thresholds); ConfidenceGate; castor fria generate FRIA artifact (OpenCastor#858) Supports
Art. 12 Record keeping β€” automatic logging of operational events enabling post-deployment reconstruction Β§6 AuditChain (HMAC-SHA256 append-only, chained); Β§16.2 AI block (model identity, confidence, latency, thought_id); QuantumLink-Sim commitment chain Provides records for
Art. 13 Transparency β€” deployers must be able to interpret outputs and understand system limitations Β§16.5 thought log (GET /api/thoughts/<id>, OWNER-gated); robot-memory.md structured operational history (rcan-spec#191) Supports
Art. 14 Human oversight β€” effective oversight during operation; ability to intervene, override, or halt Β§16.4 HiTL gates (PENDING_AUTH β†’ AUTHORIZE flow, which the spec requires the runtime rather than the AI agent to enforce); Β§2 RBAC OWNER role enforcement; ESTOP protocol Supports
Art. 17 Quality management β€” documented methodology, testing, performance monitoring, change management Β§16.3 confidence gate thresholds (performance floor); Β§16.2 inference_latency_ms in every audit record; robot-memory.md confidence decay (systematic degradation monitoring) Supports
Art. 26 Deployer obligations β€” use system as instructed, maintain human oversight, report incidents Β§2 RBAC LEASEE role (deployer authority boundary; the runtime rejects out-of-scope commands) Supports
Art. 50 Marking of AI-generated content β€” providers of systems that generate synthetic audio, image, video or text must mark that output as AI-generated (Art. 50(2)). Whether this covers robot commands is not established. Β§16.6 AI output watermarking β€” HMAC watermark token on every AI-generated COMMAND message; verification endpoint (rcan-spec#194, in progress) In progress

Detailed article-level mapping: docs/compliance/eu-ai-act-mapping.md β€” includes conformity assessment citation guidance.

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NIST AI Risk Management Framework 1.0

Voluntary framework for US federal agencies and government procurement. Relevant for DoD and GSA-schedule robotics contracts.

Function Core Requirement RCAN Provisions Coverage
GOVERN Organizational accountability, policies, and workforce capability for AI risk Β§2 RBAC (role-scoped authority); Β§16 AI accountability provisions; L1–L4 conformance as measurable governance target Supports
MAP Identify and characterize AI risks in deployment context FRIA protocol Β§22 (risk entries from conformance gaps + robot-memory hardware observations); rcan-spec#195 Supports
MEASURE Analyze and assess AI risks using quantitative and qualitative methods L1–L4 conformance test suite (quantitative pass/fail per requirement); confidence gate rejection rates; audit chain integrity verification; safety benchmarks (OpenCastor#859) Supports
MANAGE Prioritize and address risks; communicate residual risks to stakeholders Β§16.3–16.4 gating (risk prevention); Β§16.5 thought log (decision transparency); AuditChain (residual risk evidence); FRIA artifact (stakeholder communication) Supports

Detailed alignment: docs/compliance/nist-ai-rmf-alignment.md

Additional Frameworks

ISO 10218-1:2025

Supports

Safety requirements for industrial robots. RCAN provisions: Protocol 66 safety rules (15 rules across motion, force, workspace, human, thermal, electrical, software, emergency, property, privacy domains); geofencing with dead-reckoning odometry; emergency stop with callback chain.

Full alignment doc β†’

IEC 62443

Supports

Industrial automation and control system cybersecurity. RCAN provisions: ML-DSA-65 + Ed25519 message signing; RBAC with rate limiting and session timeouts; JWT authentication; mDNS discovery with peer verification.

Full alignment doc β†’

GDPR Article 22

Supports

Automated individual decision-making. RCAN provisions: Β§16.4 HiTL gates (human in the decision loop); Β§16.5 thought log (decision explainability); privacy-by-default sensor policy in OpenCastor (camera, microphone scope controls).

HIPAA

Supports

Applicable to medical robotics (surgical, clinical support, care pathway automation). RCAN provisions: role-gated audit record access (OWNER required for reasoning field); tamper-evident chain for PHI-adjacent action logs; air-gap capable (no external network required).

ISO 42001

Supports

AI management systems β€” organizational requirements. RCAN provisions: L1–L4 conformance levels provide measurable quality benchmarks for an AI management system's technical controls; audit chain supports post-market monitoring data infrastructure.

SIL/PLe (IEC 62061 / ISO 13849)

Supports

Functional safety for machinery. RCAN provisions: safety stop integration (agent.safety_stop flag); latency budget constraint (latency_budget_ms); Protocol 66 safety invariants provide evidence for safety function documentation.

Declaration template β†’

What RCAN does not address

RCAN is a protocol specification. The following compliance requirements are organizational, procedural, or regulatory in nature and are outside the scope of any protocol: EU AI Act Art. 43 conformity assessment and CE marking; Art. 49 registration in the EU AI public database; Art. 72 post-market monitoring organizational process; Art. 9(2)(b) estimation of risks under reasonably foreseeable misuse; Art. 73 reporting of serious incidents to the authorities.

RCAN provides the technical controls and audit infrastructure that support these obligations β€” it does not constitute the organizational process itself. For conformity assessment template guidance, see docs/compliance/conformity-assessment-template.md.