Sovereign. Quantum-secured. Independent.
Noah ArkCore is an artificial intelligence architecture engineered to operate entirely outside the internet — secured by the fundamental principles of quantum mechanics, and built to withstand the quantum computing era. Designed for the sectors where a single breach is unacceptable.
Current AI is
fundamentally vulnerable
Three structural flaws make today's AI unsuitable for mission-critical deployment. Each is irremediable within the current architectural paradigm — not a matter of patching, but of fundamental redesign.
Internet Dependency — The Silent Threat
Every AI system relying on internet connectivity inherits a structural attack surface that cannot be patched away. Whether for inference, updates, or data retrieval, each network call is a potential entry point for adversaries operating at nation-state capability level.
Primary attack vectors on connected AI
- Man-in-the-Middle (MitM) interception of inference requests
- API endpoint exploitation allowing model extraction or poisoning
- Supply-chain attacks via compromised cloud providers
- DNS hijacking redirecting API calls to adversarial endpoints
- DDoS attacks causing system unavailability at critical moments
Obsolete Encryption — A Ticking Clock
The cryptographic foundations of today's internet were designed for classical computers. RSA-2048, the standard protecting most sensitive communications, can be broken by a sufficiently powerful quantum computer running Shor's algorithm in hours — not millennia.
Nation-state adversaries are already intercepting and storing encrypted communications — government cables, medical records, defence contracts — intending to decrypt them once quantum capability matures. The threat is not future: it is already in motion.
Algorithms under immediate threat
- RSA (all key lengths) — vulnerable to Shor's algorithm
- ECC / ECDSA — vulnerable to Shor's algorithm
- Diffie-Hellman Key Exchange — quantum-breakable
- AES-128 — weakened by Grover's algorithm
Centralised Data — Sovereignty Surrendered
When AI systems process data on third-party cloud infrastructure, organisations implicitly surrender sovereignty over their most sensitive information. The US CLOUD Act compels American cloud providers to disclose data to US authorities regardless of where data physically resides.
Sovereignty exposure vectors
- US CLOUD Act: US authorities access data on US cloud providers globally
- Foreign intelligence collection via legal process or covert access
- Provider terms-of-service may permit training on client data
- Cloud outages render critical AI systems non-operational
- GDPR Article 46 restrictions on transfers to non-adequate countries
Noah ArkCore —
Secure by design
A five-layer sovereign AI stack where each layer is independently secured. Security by elimination: the attack surface is not hardened — it is structurally removed.
Noah ArkCore operates in complete physical isolation — air-gap — with zero dependency on any external network. The system operates in field, submarine, orbital, or connectivity-denied environments without any functional degradation.
- No network interface cards in any ArkCore processing node
- No wireless chipsets of any frequency (WiFi, BT, NFC, cellular)
- Physical data transfer only via hardware-controlled verified media
- Electromagnetic shielding for TEMPEST Zone 0 classified deployments
- Operable: expeditionary bases, submarines, orbital, underground
Native integration of all four NIST PQC 2024-standardised algorithms, from hardware root-of-trust through the application layer. The Quantum Key Distribution subsystem generates keys using quantum mechanical processes — fundamentally immune to computational attack.
- CRYSTALS-Kyber (ML-KEM) — Key encapsulation · Module lattice
- CRYSTALS-Dilithium (ML-DSA) — Digital signatures · Authentication
- FALCON (FN-DSA) — Compact signatures for edge nodes
- SPHINCS+ (SLH-DSA) — Stateless hash-based · Archival signing
- Cryptographic agility: algorithm swap without full redeployment
AI models execute locally on neuromorphic silicon processors mimicking neural architecture. Delivers LLM-class performance at 1–5W versus thousands of watts in data centre deployments. Zero data leaves the secured perimeter.
- Power: 1–5W per node vs. 200–500W GPU-based systems
- Latency: <1ms for real-time tactical applications
- Model capacity: up to 70B parameter equivalents (INT4)
- MIL-SPEC rated for shock, vibration, thermal extremes
- Minimal thermal / EM signature — critical for stealth operations
Every system decision is recorded in a distributed, immutable quantum ledger. Complete inference traceability guarantees regulatory compliance and operational accountability. The ledger itself is PQC-secured — tamper-proof even to an operator with physical access.
- Every inference: timestamp, input hash, model version, output hash
- Every data access: identity, target data, node origin
- Every config change: identity, details, approval chain
- Coverage: EU AI Act · GDPR · ISO 27001 · NIS2 · DORA
Distributed, redundant architecture guarantees service continuity even during partial infrastructure failure. Designed for strict EMCON environments and degraded-condition operations. In critical operations, AI system failure is not an option.
- Minimum n=3 nodes: Byzantine fault tolerant to n/3 failures
- Hot-standby inference nodes: sub-second failover
- Full functionality maintained down to 34% node availability
- Autonomous self-healing: detects and isolates compromised nodes
- Automatic resynchronisation upon node restoration
"Security built on quantum physics cannot be broken by computation — only by the laws of the universe itself."
— Noah Kouadri · Director, NAQTL · Castres, France
ArkCore vs.
conventional AI
A structured comparison across eight operational dimensions relevant to critical-sector AI deployment. Click any row for detailed context.
| Operational Dimension | Cloud AI (GPT / AWS / Azure) |
On-Prem GPU AI (Self-hosted) |
Noah ArkCore (Sovereign Stack) |
|---|---|---|---|
| Network independence | ✗ None Permanent internet required |
△ Partial Updates need connectivity |
✓ Total Complete air-gap |
| Post-quantum encryption | ✗ None RSA/ECC only |
△ Optional Requires separate config |
✓ Native NIST PQC 2024 — all 4 algos |
| Data sovereignty guarantee | ✗ None US CLOUD Act applies |
△ Partial Depends on vendors used |
✓ Absolute Data never leaves perimeter |
| Immutable audit trail | ✗ None No inference logging |
△ Partial Mutable logs only |
✓ Quantum-secured PQC-signed ledger |
| EMCON compatibility | ✗ Incompatible | ✗ Incompatible | ✓ Full Zero EM emission mode |
| Energy efficiency | △ Low 200–500W per GPU node |
△ Low 200–500W per GPU node |
✓ 100× higher 1–5W per inference node |
| Vendor independence | ✗ Total dependency Google / MS / AWS |
△ Partial Hardware vendors |
✓ Complete Fully sovereign stack |
| Extreme environment deployment | ✗ Impossible | ✗ Impossible | ✓ Designed for it Field · Sub · Orbital |
↑ Click any row to expand detailed context
What ArkCore
can accomplish
Six core capability modules, each delivering enterprise-class AI performance entirely within the sovereign perimeter. Click any card to expand technical specifications.
Sovereign Natural Language Processing
Compact language models optimised for local inference. Document analysis, drafting, synthesis and real-time translation with zero data transmitted externally.
NLP · Local InferenceSupported tasks
- Intelligence report summarisation and cross-document synthesis
- Real-time multilingual translation (40+ languages)
- Classified document drafting assistance and review
- Named-entity recognition for signals intelligence
- Sentiment and intent analysis for diplomatic communications
Computer Vision & Image Recognition
Object detection, secure biometric recognition and satellite or medical imagery analysis on dedicated neuromorphic hardware — zero cloud, zero network latency.
Computer VisionVision capabilities
- Object detection and tracking at 60fps on 4K input streams
- Satellite and aerial imagery: sub-meter resolution classification
- Medical imaging: radiology, pathology, diagnostic analysis
- Document digitisation and multi-script OCR
- Multi-temporal change detection and anomaly mapping
Predictive Analytics & Anomaly Detection
Federated learning algorithms enabling distributed training on sensitive datasets without centralisation or exposure of raw data across nodes.
Federated LearningUse cases
- Collaborative threat detection across multiple military installations
- Hospital network diagnostics without patient data sharing
- Industrial anomaly detection across distributed facilities
- Fraud pattern learning under banking secrecy constraints
Privacy mechanisms
- Differential privacy: mathematical guarantee individual records not inferable
- Secure aggregation: gradients summed without nodes seeing others' data
- PQC-secured gradient transmission between all federated nodes
Provably Secure Cryptography
Native implementation of all four NIST-standardised post-quantum algorithms — CRYSTALS-Kyber, Dilithium, FALCON and SPHINCS+ — from hardware to application layer.
PQC Native · NIST 2024PQC algorithms implemented
- ML-KEM (Kyber) — Key encapsulation · Module lattice problem
- ML-DSA (Dilithium) — Digital signatures · Component authentication
- FN-DSA (FALCON) — Compact NTRU lattice signatures · Edge nodes
- SLH-DSA (SPHINCS+) — Stateless hash-based · Archival and legal
Autonomous Multi-Agent Systems
Specialised AI agents operating in a local mesh network — capable of planning, deliberation and complex task execution without continuous human supervision.
Multi-Agent AIAvailable agent specialisations
- Intelligence Analyst — cross-domain pattern recognition
- Planning Agent — mission plan generation and wargaming
- Communications Agent — secure drafting and encryption
- Monitoring Agent — continuous sensor stream analysis
- Decision Support — structured trade-off analysis
- Logistics Agent — supply chain optimisation
All inter-agent communication is via an internal quantum-encrypted message bus within the ArkCore perimeter.
Hardware Integration & Secure IoT
Hardware API for integration with sensors, embedded systems and IoT platforms via quantum-secured communication protocols, even on narrow-band channels.
Embedded Systems · MIL-SPECSupported hardware
- Environmental sensors: temperature, pressure, chemical, radiation
- Imaging: optical, infrared, hyperspectral, SAR radar
- Industrial control: PLCs, SCADA, DCS (read-only mode available)
- Navigation: GPS-denied INS, terrain-referenced navigation
Physical communication protocols
- RS-232/485, CAN bus, SpaceWire, MIL-STD-1553
- Narrow-band RF: quantum-secured serial links over HF/VHF/UHF
- Optical: QKD over free-space optical links
Priority
application sectors
ArkCore meets the most stringent digital sovereignty and operational security requirements. Click any sector to expand use-cases, compliance coverage, and deployment context.
Command & Control Systems
Tactical analysis and decision support under EMCON conditions, deployment on projected assets, integration with existing C2 platforms with TEMPEST certification.
Medical Imaging & Diagnostics
Sensitive diagnostic image processing in isolated hospital environments. Native GDPR and HDS compliance. Zero patient data exposure beyond the medical perimeter.
Energy & Transport Networks
Monitoring and protection of SCADA/ICS for electrical grids, nuclear plants and airport control systems against next-generation cyber-physical attacks.
Laboratories & IP Protection
Protection of intellectual property and fundamental research data in academic and industrial environments exposed to economic espionage risks estimated at $600B annually.
Join the
quantum
frontier.
Noah ArkCore is developed within Noah's Ark Quantum Tech Lab in Castres, France. We engage with organisations whose security and digital sovereignty requirements exceed the capabilities of conventional solutions.
If your organisation operates in a critical sector and requires AI that is truly sovereign, internet-independent, and quantum-ready — we should speak.
Request a Consultation · All enquiries reviewed by Noah Kouadri · Reply within 48h
