Sovereign identity verification and security posture attestation for mission-critical environments.
CypSec's attestation framework represents a paradigm shift from centralized identity authorities to cryptographically-verifiable sovereignty. Built upon post-quantum cryptographic primitives and deployed within air-gapped sovereign infrastructure, the framework enables entities to establish immutable digital provenance without surrendering operational autonomy to foreign validation authorities or commercial certificate hierarchies.
The architecture addresses critical failure modes inherent in traditional PKI systems: single points of cryptographic failure, jurisdictional exposure, and surveillance capitalism embedded within identity verification. Each attestation is cryptographically bound to CypSec's sovereign root of trust while maintaining complete operational independence for attested entities across disconnected, contested, and zero-trust environments.
Cryptographic identity anchoring for individuals operating within sensitive domains: intelligence services, critical infrastructure, journalism, and activism. Implements selective disclosure protocols enabling granular control over attribute revelation while maintaining non-repudiable identity binding.
Verify identity attributes without exposing underlying personal data
Quantum-resistant signature schemes for long-term identity validity
Complete sovereignty from foreign identity authorities
Comprehensive security posture attestation for organizations operating critical infrastructure, defense supply chains, and sovereign enterprises. Implements continuous compliance monitoring with automated verification of security controls, incident response capabilities, and supply chain integrity.
Real-time security posture validation with automated compliance checking
Cryptographic validation of vendor relationships and component integrity
Verified breach response capabilities and forensic readiness assessment
The attestation framework deploys across three distinct operational paradigms, each optimized for specific threat models and deployment constraints. Whether operating within classified government networks, critical infrastructure environments, or commercial cloud infrastructure, the framework maintains cryptographic integrity and operational sovereignty without compromise.
Complete infrastructure isolation for environments requiring absolute separation from external networks. Implements hardware security module clusters with multi-party computation for distributed key generation and threshold signature schemes eliminating single points of cryptographic failure.
FIPS 140-3 Level 4 certified HSM clusters
Distributed key generation with threshold cryptography
Tamper-evident enclosures with environmental monitoring
Jurisdiction-aware deployment combining on-premises hardware roots of trust with sovereign cloud infrastructure. Enables cryptographic attestation across distributed environments while maintaining compliance with data residency requirements and national security regulations.
Sovereign cloud with GDPR compliance
On-prem HSM + cloud orchestration
NIS2, CER, and sector-specific regulations
Multi-stakeholder verification enabling cross-organizational identity and security posture validation. Implements decentralized identifier (DID) resolution with federated credential revocation and real-time trust status propagation across network participants.
W3C DID standard with cross-platform resolution
Immutable credential status with distributed contracts
Instant trust status updates across network
| Capability | Air-Gapped | Hybrid Cloud | Federated |
|---|---|---|---|
| Cryptographic Isolation | ✓ | ✓ | ~ |
| Real-time Synchronization | ✗ | ✓ | ✓ |
| Cross-Domain Validation | ✗ | ~ | ✓ |
| Hardware Root of Trust | ✓ | ✓ | ~ |
The attestation framework integrates with existing security infrastructure through standards-based protocols while maintaining operational independence. Native support for OpenID Connect Federation, SAML 2.0, and WS-Federation enables seamless integration with enterprise identity providers without compromising cryptographic sovereignty.
Decentralized Identifier compliance with full DID resolution and cryptographic binding
Verifiable Credentials standard with selective disclosure and zero-knowledge proofs
OpenID Connect Federation 1.0 with dynamic client registration
Security Assertion Markup Language with XML signature validation
Post-quantum signature schemes resistant to Shor's algorithm and Grover's algorithm attacks
Hardware-based attestation with secure boot chains and component integrity verification
Jurisdictional isolation with no dependency on foreign certificate authorities or cloud infrastructure
Mathematically provable identity binding with immutable audit trails
Ephemeral key derivation preventing retrospective decryption of historical attestations
Distributed consensus mechanisms preventing single-point-of-failure exploitation