Post-Quantum Cryptography (PQC) integrated with Quantum Key Distribution (QKD), Quantum Random Number Generator (QRNG), and Entropy-as-a-Service (EaaS). Defense-grade protection combining information-theoretic security with National Institute of Standards and Technology (NIST) approved computational security. Proven at scale with 1200+ users across 3 strategic defense datacenters.
Quantum computers will break Rivest-Shamir-Adleman (RSA) and Elliptic Curve Cryptography (ECC) encryption. Adversaries harvest encrypted data today for future decryption. NIST published post-quantum standards in August 2024. Organizations with long-lived sensitive data require comprehensive quantum-safe infrastructure today.
Harvest now, decrypt later attacks
Adversaries capture encrypted communications today to decrypt with quantum computers tomorrow. Your sensitive data becomes vulnerable when quantum computing matures. Organizations require protection now for data with 10-25 year lifespans.
Zero quantum protection from RSA/ECC
Current encryption relies on mathematical problems quantum computers will solve efficiently. Shor's algorithm breaks RSA and ECC in polynomial time. Traditional public-key cryptography cannot protect against quantum threats.
Federal mandates require quantum-safe transition
NIST published post-quantum cryptography standards in August 2024. Federal agencies must transition to quantum-resistant algorithms by 2030. Commercial National Security Algorithm Suite (CNSA) 2.0 mandates post-quantum cryptography for classified communications.
Long-lived data faces quantum risk
Sensitive information requiring decades of protection faces quantum risk now. Financial records, healthcare data, and classified intelligence need quantum-safe encryption. Waiting for quantum computers to arrive means your data is already compromised.
A quantum-safe ecosystem combines multiple quantum-resistant technologies for comprehensive protection. Post-Quantum Cryptography (PQC) provides computational security through NIST-approved lattice-based algorithms. Quantum Key Distribution (QKD) delivers information-theoretic security that quantum computers cannot break. Quantum Random Number Generator (QRNG) creates unpredictable encryption keys using quantum entropy. Together, these technologies provide defense-grade protection beyond what PQC alone can deliver.
Why ecosystem approach matters
PQC algorithms provide computational security based on hard mathematical problems. QKD provides information-theoretic security based on quantum physics laws. Computational security depends on algorithm strength and computing power available. Information-theoretic security remains secure regardless of adversary computing resources. Our ecosystem combines both approaches for comprehensive quantum-safe infrastructure.
NIST-approved foundation
Our PQC implementation uses CRYSTALS-Kyber and CRYSTALS-Dilithium, both approved by NIST in August 2024. These algorithms replace vulnerable RSA and ECC encryption with quantum-resistant alternatives. They resist attacks from classical and quantum computers. Standards published August 2024 enable immediate deployment across enterprise infrastructure.
Information-theoretic security explained
Protection proven by physics laws rather than mathematical difficulty. Remains secure regardless of adversary computing power, including quantum computers. This is fundamentally stronger than computational security.
Our platform integrates PQC, QKD, QRNG, and EaaS for comprehensive quantum-safe security. Each component addresses specific vulnerabilities in classical cryptography. Together they create defense-grade protection proven at scale with 1200+ users.
NIST-compliant PQC algorithms
CRYSTALS-Kyber for key encapsulation meets NIST FIPS 203 standards. CRYSTALS-Dilithium for digital signatures meets NIST FIPS 204 requirements. Lattice-based algorithms provide quantum resistance and excellent performance.
Information-theoretic security through QKD
Quantum Key Distribution uses quantum physics for unconditional security that quantum computers cannot break. Any eavesdropping attempt disturbs quantum states and alerts communicators. QKD provides security that remains absolute regardless of adversary computing power.
Hardware QRNG for unpredictable keys
Quantum Random Number Generator creates truly random numbers using quantum entropy. Hardware-based randomness cannot be predicted or reproduced by adversaries. QRNG eliminates vulnerabilities in pseudo-random number generation.
Crypto-agile integration without disruption
Platform-independent deployment across servers, mobile devices, and embedded systems. Seamless integration with existing infrastructure without costly hardware replacement. Supports hybrid mode combining classical and post-quantum algorithms during transition.
Proven at defense scale
Deployed with 1200+ users across 3 strategic defense datacenters. Zero operational disruption during implementation of quantum-safe infrastructure. Mission-critical communications remain secure against current and future threats.
Scalable across enterprise infrastructure
Integrates with existing security architecture and authentication protocols. Supports phased migration from quantum-vulnerable to quantum-safe systems. Scales from pilot deployments to organization-wide quantum-safe infrastructure.
Defense organizations, financial institutions, and critical infrastructure operators require quantum-safe protection today. Each sector faces unique threats from quantum computing advances. Our ecosystem approach addresses sector-specific security requirements with proven solutions.
CNSA 2.0 compliance requires quantum-safe algorithms for classified communications by 2030. Our ecosystem protects national security intelligence from harvest now decrypt later attacks. ML-DSA Level 5 certificates provide highest security grade for defense operations. Information-theoretic QKD security supplements computational PQC protection for classified data.
Connect distributed defense installations with quantum-safe channels for command communications. Protect inter-site intelligence sharing across geographically separated secure facilities. Support tactical operations with encryption resisting current and future quantum threats. Proven deployment: 1200+ users across 3 strategic defense datacenters.
Secure communications with defense contractors and suppliers using quantum-resistant encryption. Protect classified program information during development and procurement processes. Extend quantum-safe infrastructure across entire defense supply chain. Zero-trust architecture with quantum-safe mutual authentication for all connections.
Protect wire transfers and high-value transactions with quantum-safe encryption algorithms. Meet regulatory requirements for Payment Card Industry Data Security Standard (PCI-DSS) compliance. Ensure transaction integrity with authenticated encryption for all data in motion. Prevent harvest now decrypt later attacks on financial transaction records.
Financial institutions store customer data and transaction records for decades. Current RSA encryption protecting archived data will become vulnerable to quantum attacks. Quantum-safe ecosystem protects both data in transit and data at rest. Regulatory compliance requires protecting sensitive information throughout entire retention period.
Secure high-frequency trading communications with quantum-resistant algorithms and minimal latency. Protect proprietary trading strategies from interception during electronic communication. Enable secure API connectivity for fintech partnerships with quantum-safe encryption standards. Securities and Exchange Board (SEBI) cybersecurity frameworks mandate quantum-safe readiness.
Telecom networks carry sensitive communications for millions of subscribers daily. 5G infrastructure security requires quantum-safe encryption for control plane communications. Protect subscriber identity, authentication, and billing data from quantum threats. Enable quantum-safe roaming and inter-operator connections across global networks.
Provide quantum-safe dedicated connections for enterprise customers and government agencies. Secure Virtual Private Network (VPN) services using post-quantum cryptography algorithms. Enable wholesale partners to offer quantum-safe services to end customers. Differentiate through quantum-safe infrastructure ahead of regulatory mandates.
Network infrastructure investments require 10-20 year operational lifespans for return on investment. Deploy quantum-safe security today to protect long-term network infrastructure value. Crypto-agile architecture enables algorithm updates as standards evolve without infrastructure replacement. Position for leadership when quantum-safe becomes mandatory regulatory requirement.
Traditional encryption and standalone PQC provide only computational security. Our ecosystem approach combines computational and information-theoretic security. Computational security depends on algorithm strength; information-theoretic security is proven by physics laws.
Real deployments prove quantum-safe ecosystem reliability and security. Defense organizations trust our platform for mission-critical operations. Standards compliance and independent certification validate quantum-safe technology.
Defense deployment at scale
1200+ users operate across 3 strategic defense datacenters with quantum-safe security. Zero operational disruption during deployment of quantum-resistant infrastructure. Mission-critical communications protected against current and future quantum threats.
NIST and CNSA 2.0 certified
NIST FIPS 203 ML-KEM and FIPS 204 ML-DSA compliant implementation. CNSA 2.0 certified for federal agency deployment protecting classified communications. Standards-based quantum-safe cryptography approved by National Institute of Standards and Technology.
Information-theoretic security validated
QKD provides unconditional security proven by quantum physics laws. Hardware QRNG generates true quantum entropy validated through independent testing. Tamper-proof key distribution alerts operators to any eavesdropping attempts.
Global quantum-safe deployments
Trusted across defense, banking, telecom, and critical infrastructure sectors globally. Deployed in India, Middle East, Europe, and United States. International organizations rely on quantum-safe ecosystem for sensitive communications.
A quantum-safe ecosystem combines Post-Quantum Cryptography (PQC), Quantum Key Distribution (QKD), Quantum Random Number Generator (QRNG), and Entropy-as-a-Service (EaaS). PQC provides computational security using NIST-approved lattice-based algorithms. QKD delivers information-theoretic security that quantum computers cannot break. Together they create defense-grade protection beyond standalone PQC algorithms.
We implement CRYSTALS-Kyber (ML-KEM, NIST FIPS 203) for quantum-resistant key encapsulation. We deploy CRYSTALS-Dilithium (ML-DSA, NIST FIPS 204) for quantum-safe digital signatures. Standards published August 2024 enable immediate deployment for federal compliance. Platform meets CNSA 2.0 requirements for protecting classified communications.
Yes. Platform integrates with current security architecture and authentication protocols. Supports hybrid mode combining classical and post-quantum algorithms during transition. Works across servers, mobile devices, cloud environments, and embedded systems. No costly hardware replacement required for quantum-safe deployment.
QKD sends encryption keys using quantum light particles. Physics laws guarantee that any eavesdropping attempt disturbs these particles. You can immediately detect tampering and discard compromised keys. Remaining keys provide unconditional security proven by physics, not mathematics.
Traditional pseudo-random number generators use computer algorithms that produce predictable patterns. Attackers can exploit these patterns to compromise encryption keys. QRNG generates truly random numbers using quantum measurements that are genuinely unpredictable. This eliminates vulnerabilities that attackers exploit in traditional encryption.
PQC algorithms rely on mathematical problems being difficult to solve. QKD relies on physics laws that cannot be broken. PQC security improves with stronger algorithms; QKD security is absolute. Our ecosystem combines both approaches for comprehensive quantum-safe infrastructure that provides maximum protection.
Adversaries capture encrypted communications today even without ability to decrypt them. They store intercepted data until quantum computers become available. Quantum computers will break RSA and ECC encryption protecting captured data. Organizations must deploy quantum-safe encryption now to protect against future decryption.
Migration typically spans 3-5 years for complete enterprise infrastructure transformation. Start with cryptographic inventory to identify quantum-vulnerable systems. Pilot quantum-safe deployment in highest-risk systems first. Scale systematically using phased approach with hybrid classical-quantum transition strategy.
Defense and federal agencies protecting classified intelligence need quantum-safe security now. Financial institutions storing sensitive customer data for decades face quantum risk. Telecom operators building infrastructure with 10-20 year lifespans require quantum-safe protection. Any organization with long-lived sensitive data needs ecosystem approach today.
NIST published post-quantum cryptography standards in August 2024. Federal agencies must transition to quantum-resistant algorithms by 2030. CNSA 2.0 mandates post-quantum cryptography for classified communications. Securities regulators require quantum-safe readiness for financial institutions protecting long-lived data.
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