Control cryptographic keys protecting sensitive data with quantum-resistant security. QVault delivers complete key lifecycle management with hardware quantum entropy foundation. Purpose-built for quantum threat protection, not retrofitted onto vulnerable infrastructure.
Cloud key management services use pseudo-random number generation creating predictable patterns. Quantum-vulnerable algorithms protect key exchange and storage operations. Hardware security modules lack true quantum entropy sources. These fundamental weaknesses compromise every key your KMS generates.
Pseudo-random generation creates exploitable patterns
Pseudorandom Number Generators (PRNGs) use mathematical algorithms producing deterministic sequences from seed values. Adversaries who determine the seed reproduce the entire key sequence. Every key inherits this foundational vulnerability despite appearing random.
Quantum-vulnerable key exchange algorithms
Current KMS solutions use Rivest-Shamir-Adleman (RSA) and Elliptic Curve Cryptography (ECC) for key exchange operations. Quantum computers will break these algorithms through Shor's algorithm making encrypted keys readable. Harvest now decrypt later attacks target key material protected by vulnerable algorithms.
Hardware Security Modules lack quantum entropy
Standard Hardware Security Modules (HSMs) rely on thermal noise or clock jitter for randomness generation. These sources provide limited entropy insufficient for quantum-safe key generation. True quantum randomness requires dedicated quantum hardware not present in standard HSM architectures.
No hardware foundation for quantum-safe security
Software-based quantum-safe algorithms cannot compensate for weak entropy at key generation origin. Security depends entirely on unpredictable randomness at the foundation layer. Cloud KMS services lack hardware quantum entropy sources in their fundamental architecture.
Quantum-safe key management combines post-quantum cryptographic algorithms with hardware quantum entropy generation. Traditional Key Management Service (KMS) solutions encrypt and store keys using quantum-vulnerable algorithms. They generate keys using pseudo-random processes that sophisticated adversaries can predict and exploit.
QVault builds quantum-safe security from hardware foundation up through entire key lifecycle. Quantum Random Number Generator (QRNG) hardware creates truly unpredictable keys using quantum physics. Post-quantum algorithms protect key exchange, encryption, and storage operations. FIPS 140-3 Level 3 validated Hardware Security Modules secure all cryptographic operations.
Hardware quantum entropy foundation
QRNG hardware measures quantum events that remain fundamentally unpredictable by physics laws. Photon detection timing creates randomness no algorithm can predict or reproduce. This eliminates deterministic patterns that adversaries exploit in pseudo-random generators. Every key QVault generates starts with genuine quantum entropy.
Post-quantum cryptography throughout lifecycle
CRYSTALS-Kyber (Module-Lattice-Based Key-Encapsulation Mechanism, National Institute of Standards and Technology NIST FIPS 203) protects key exchange. CRYSTALS-Dilithium (ML-DSA, NIST FIPS 204) secures digital signatures for key authentication. Advanced Encryption Standard (AES) 256 with Galois/Counter Mode (GCM) encrypts stored keys. Lattice-based algorithms resist attacks from both classical and quantum computers.
Complete key lifecycle management
Generation creates keys using quantum entropy in FIPS 140-3 Level 3 validated modules. Storage encrypts keys under Key Encryption Keys (KEK) using post-quantum algorithms. Rotation automatically generates fresh keys at configured intervals without operational disruption. Distribution delivers keys to applications through quantum-safe channels. Revocation removes compromised keys preventing future use across infrastructure.
QVault delivers complete key lifecycle management with hardware quantum entropy foundation. Post-quantum cryptography protects every operation from generation through revocation. Commercial National Security Algorithm Suite (CNSA) 2.0 compliance meets federal mandates for quantum-safe security.
Hardware QRNG for unpredictable keys
Quantum Random Number Generator produces 100 megabits per second true quantum entropy. Hardware-generated randomness cannot be predicted or reproduced by adversaries. NIST Special Publication (SP) 800-90B Entropy Source Validation (ESV) certified quantum entropy meets cryptographic requirements.
NIST-approved post-quantum algorithms
CRYSTALS-Kyber implementation meets NIST FIPS 203 standards for key encapsulation. CRYSTALS-Dilithium provides Module-Lattice-Based Digital Signature Algorithm (ML-DSA) meeting NIST FIPS 204 requirements. Lattice-based cryptography resists attacks from classical and quantum computers.
FIPS 140-3 Level 3 validated protection
Key generation and cryptographic operations occur within FIPS 140-3 Level 3 validated boundaries. Hardware security modules provide physical security mechanisms and tamper detection. Secure boot verifies firmware authenticity before execution preventing unauthorized code.
Automated key rotation policies
Configure key rotation frequencies based on security requirements and compliance mandates. Automatic rotation generates fresh keys without operational disruption. Forward secrecy ensures compromised keys cannot decrypt past communications or future traffic.
Centralized key policy management
Define and enforce key usage policies from single management interface. Role-based access controls determine who can manage keys versus who uses them. Audit logging tracks every key operation for compliance reporting and security monitoring.
CNSA 2.0 compliance certified
Meets Commercial National Security Algorithm Suite 2.0 requirements for federal deployment. Approved for protecting classified communications and sensitive government operations. Defense contractors and federal agencies trust QVault for mission-critical key management.
Hardware Quantum Random Number Generator creates the foundation for every cryptographic key. Quantum measurements remain fundamentally unpredictable regardless of adversary computing power. This eliminates vulnerabilities present in pseudo-random number generators that cloud KMS services use.
True quantum randomness
QRNG measures quantum photon behavior at subatomic level producing genuine randomness. Quantum mechanics ensures measurement outcomes remain unpredictable even with complete system knowledge. Hardware generates entropy immune to algorithmic prediction or seed value attacks.
100 Mbps sustained quantum entropy
Generates 640,000 AES-256 encryption keys per second from quantum source. High throughput supports continuous key rotation requirements for enterprise operations. Sustained entropy rate eliminates depletion vulnerabilities present in standard HSM random sources.
NIST entropy validation certified
Entropy Source Validation under NIST SP 800-90B confirms unpredictability and quality. Statistical testing demonstrates uniform distribution and absence of patterns in generated sequences. Independent validation proves cryptographic-grade randomness for federal and enterprise deployment.
Eliminates pseudo-random vulnerabilities
Deterministic algorithms produce patterns that sophisticated adversaries analyze and exploit. Seed value compromise enables reproduction of entire key sequences. QRNG provides physical randomness that mathematical algorithms cannot replicate or predict.
ys without operational disruption. Forward secrecy ensures compromised keys cannot decrypt past communications or future traffic.
Every phase of key lifecycle incorporates quantum-resistant cryptography and hardware entropy. Generation creates keys using quantum randomness in FIPS-validated modules. Distribution, storage, rotation, and revocation operations use post-quantum algorithms protecting against quantum threats.
Quantum-safe key generation
QRNG hardware creates encryption keys with true quantum entropy. Generation occurs within FIPS 140-3 Level 3 validated security boundaries. Each key derives from unique quantum measurements preventing correlation or prediction.
Encrypted key storage
Key Encryption Keys (KEK) protect stored keys using AES-256-GCM authenticated encryption. KEKs themselves encrypt under master keys using post-quantum algorithms. Multi-layer encryption ensures keys remain protected at rest.
Automated key rotation
Configurable rotation policies generate fresh keys at defined intervals. Automatic rotation occurs without application downtime or operational disruption. Old keys remain available for decrypting historical data during transition.
Secure key distribution
Post-quantum secured channels deliver keys to applications and encryption systems. CRYSTALS-Kyber protects key exchange preventing interception during distribution. Transport Layer Security (TLS) 1.3 with ML-KEM ensures quantum-safe connections.
Key access control and permissions
Role-based access control separates key management from key usage permissions. Multi-factor authentication verifies administrator identity before granting key access. Principle of least privilege limits exposure to only necessary personnel.
Key revocation and destruction
Immediate revocation removes compromised keys from all connected systems. Cryptographic erasure ensures destroyed keys cannot be recovered. Audit trails document key lifecycle from creation through final destruction.
Cloud KMS services use pseudo-random number generation and quantum-vulnerable algorithms. QVault builds quantum-safe security from hardware quantum entropy foundation. Hardware QRNG and post-quantum cryptography throughout lifecycle provide verifiable quantum-resistant protection.
Federal agencies and defense organizations trust QVault for protecting classified communications. Independent certification validates quantum-safe cryptography and hardware security claims. Production deployments prove operational reliability for mission-critical key management.
FIPS 140-3 Level 3 validation
Key storage and cryptographic operations meet FIPS 140-3 Level 3 requirements. Physical security mechanisms satisfy tamper evidence and detection standards. Role-based authentication controls access to cryptographic operations and security parameters.
CNSA 2.0 certified
Commercial National Security Algorithm Suite 2.0 certified for federal deployment. Meets requirements for protecting classified communications and sensitive operations. Approved algorithms include AES-256, ML-KEM-1024, and ML-DSA-87.
NIST entropy source validation
QRNG meets Entropy Source Validation certification under NIST SP 800-90B. Statistical testing demonstrates unpredictability and absence of patterns in quantum entropy. Independent validation proves cryptographic-grade randomness for federal requirements.
Defense deployment validation
Deployed across defense installations protecting classified communications and national security information. Trusted by federal agencies and defense contractors for mission-critical operations. Real-world validation in highest-security operational environments proves reliability.
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