SECURITY TECHNOLOGIESTECHNOLOGY LANDSCAPE
SECURITY CANNOT
REMAIN STATIC.
Modern enterprise security can no longer treat cryptography as a static configuration file. As computational capabilities advance and NIST post-quantum mandates take effect, resilience requires an adaptable cryptographic lifecycle.
CRYPTOGRAPHIC FOUNDATIONS
Mathematical primitives, symmetric key wrapping, and PKI identity trust securing data in transit and at rest.
HNDL EXPOSURE & RISK
Active tracking of Harvest-Now-Decrypt-Later (HNDL) threats and asymmetric key dependencies across microservices and HSMs.
POST-QUANTUM TRANSITION
NIST ML-KEM and ML-DSA lattice encryption shielding long-term confidential assets against future quantum decryption.
ARCHITECTURAL ADAPTABILITY
Decoupled crypto-agility abstraction layers enabling seamless zero-downtime algorithm hot-swapping.
CORE TECHNOLOGY DOMAINS
CORE CAPABILITIES OF THE
INFRYS PLATFORM.
CRYPTOGRAPHY
TRUST IN THE MATHEMATICS.
The cryptographic foundations that protect identities, communications, data and digital transactions.
POST-QUANTUM CRYPTOGRAPHY
PREPARE BEFORE THE THREAT ARRIVES.
Assess cryptographic exposure and prepare enterprise systems for the post-quantum transition.
CRYPTO-AGILITY
DECOUPLE CRYPTOGRAPHY FROM CODE.
Design infrastructure that can adapt algorithms and cryptographic providers without rebuilding the entire application stack.
SECURITY ARCHITECTURE
ENGINEER SECURITY AS A SYSTEM.
Connect applications, infrastructure, identity, cryptography and security controls into a 7-layer living enterprise architecture.
CRYPTOGRAPHIC TRANSITION
FROM TODAY'S CRYPTOGRAPHY
TO WHAT COMES NEXT.
NIST Standardized Post-Quantum Deployment
Implement standards-based post-quantum cryptography, including hybrid key-establishment with ML-KEM (FIPS 203) and digital signature architectures using ML-DSA (FIPS 204) and SLH-DSA (FIPS 205).
WHY THE TRANSITION MATTERS · HNDL EXPOSURE
THE CRYPTOGRAPHIC
LANDSCAPE IS CHANGING.
Harvest-Now-Decrypt-Later (HNDL) adversary operations mean confidential enterprise records intercepted today remain at risk of future quantum decryption.
THE MIGRATION STARTS BEFORE THE THREAT ARRIVES.Adversaries intercept and collect encrypted enterprise traffic and data archives today.
Financial, healthcare, intellectual property, and state records retain value for decades.
Future Cryptanalytically Relevant Quantum Computers (CRQCs) break legacy asymmetric keys.
TRUST IN THE
MATHEMATICS.
The cryptographic foundations that protect identities, communications, data, and digital transactions across enterprise environments.
Every modern enterprise application relies on mathematical assumptions beneath every TLS handshake, API authentication token, and database envelope encryption.
Infrys cryptographic engineering brings mathematical clarity to complex environments—discovering legacy asymmetric dependencies, establishing split-knowledge key wrapping, and hardening PKI certificate authorities against cryptanalytic threats.
Cryptographic Inventory
Automated scanning of application codebases, databases, and HSM hardware to discover algorithm dependencies.
Symmetric Key Wrapping
High-speed envelope encryption utilizing AES-256-GCM and HMAC authentication.
PKI & Certificate Management
Enterprise Public Key Infrastructure architecture supporting automated key lifecycle rotation.
Dependency Mapping
Graph-based visualization mapping cryptographic primitives across multi-cloud services.
Recommendation for Key Management
Guidelines for key generation, storage, wrapping, and destruction across enterprise lifecycles.
Security Requirements for Cryptographic Modules
Validation requirements for hardware security modules (HSM) and software cryptographic primitives.
Internet X.509 PKI Profile
Standardized certificate and CRL profiles securing enterprise transport layer communication.
PREPARE BEFORE THE
THREAT ARRIVES.
Assess cryptographic exposure, defend against Harvest-Now-Decrypt-Later (HNDL) threats, and migrate enterprise systems to NIST-standardized lattice algorithms.
Adversaries actively harvest encrypted enterprise data today to decrypt it once Cryptanalytically Relevant Quantum Computers (CRQCs) become operational. High-value transactions, intellectual property, and government records with multi-decade longevity are immediately vulnerable.
Infrys implements standards-based post-quantum cryptography—deploying ML-KEM (FIPS 203) for key encapsulation in hybrid key-establishment configurations alongside classical mechanisms where protocol support permits, and ML-DSA (FIPS 204) and SLH-DSA (FIPS 205) for quantum-resistant digital signatures.
ML-KEM (FIPS 203) Key Encapsulation
Lattice-based key-encapsulation mechanism safeguarding shared secret establishment against quantum cryptanalysis.
ML-DSA (FIPS 204) Digital Signatures
Primary lattice-based digital signature algorithm providing quantum-resistant authentication and integrity.
SLH-DSA (FIPS 205) Hash-Based Signatures
Stateless hash-based digital signature algorithm offering conservative signature protection.
Hybrid Key-Establishment Architecture
Combine classical mechanisms with ML-KEM (FIPS 203) where protocol and implementation support permit to maintain interoperability during migration.
Module-Lattice-Based Key-Encapsulation Mechanism
Standardized ML-KEM algorithm (formerly CRYSTALS-Kyber) for quantum-resistant secret key exchange.
Module-Lattice-Based Digital Signature Standard
Standardized ML-DSA algorithm (formerly CRYSTALS-Dilithium) for quantum-resistant identity signatures.
Stateless Hash-Based Digital Signature Standard
Standardized SLH-DSA algorithm (formerly SPHINCS+) providing hash-backed signature resilience.
DECOUPLE CRYPTOGRAPHY
FROM APPLICATION CODE.
Design enterprise infrastructure that can adapt algorithms, key lengths, and hardware security providers without rebuilding the entire application stack.
Tightly coupling cryptographic calls directly into application code creates fragile enterprise systems. When a cryptographic algorithm is deprecated or a vulnerability is discovered, modifying hundreds of microservices requires massive code refactoring.
Infrys Crypto-Agility architecture introduces a decoupled cryptographic broker layer. Applications invoke high-level security primitives while the underlying cryptographic provider, algorithm, key size, and HSM hardware can be hot-swapped seamlessly without downtime.
Cryptographic Broker Layer
Abstracted API middleware isolating application logic from underlying algorithm implementations.
Zero-Downtime Hot-Swapping
Dynamically switch encryption algorithms or key lengths in production without restarting microservices.
Multi-Provider HSM Abstraction
Unified cryptographic interface across cloud HSMs (AWS CloudHSM, Azure Key Vault, PKCS#11 hardware).
Algorithm Decay Telemetry
Real-time monitoring signaling deprecation timelines and automated algorithm migration triggers.
Transitions: Recommendation for Transitioning Cryptographic Algorithms
Framework for managing algorithm deprecation and phased cryptographic replacement timelines.
Key Management Interoperability Protocol
Standardized communication protocol connecting enterprise applications to centralized key management servers.
Cryptographic Token Interface Standard
Unified interface specification enabling application independence from hardware security modules.
ENGINEER SECURITY AS A
LIVING SYSTEM.
Connect applications, infrastructure, identity, cryptography, and operational controls into resilient, evolutionary 7-layer enterprise architectures.
Enterprise security fails when components operate in isolation. A vulnerability in identity management compromises database encryption, while static key management undermines modern application security.
Infrys Security Architecture treats defense as a living system. We design multi-layered enterprise frameworks where cryptographic controls, zero-trust identity networks, post-quantum resilience, and continuous telemetry reinforce each other across all seven infrastructure tiers.
Zero-Trust Network Architecture
Micro-segmentation and continuous cryptographic identity verification across all network perimeters.
Envelope Data Protection
Multi-layer database and object storage encryption backed by dynamic key wrapping.
Identity & Access PKI
Robust public key infrastructure issuing hardware-backed credentials for services and devices.
Continuous Security Telemetry
Real-time telemetry and SIEM integration monitoring cryptographic integrity and threat anomalies.
PQC
NIST ML-KEM (FIPS 203) & ML-DSA (FIPS 204)
Quantum-resistant key encapsulation and lattice digital signatures built for long-term data security.
PUT TECHNOLOGY INTO PRACTICE
FROM ARCHITECTURE TO
DEPLOYMENT.
CRYPTOGRAPHIC ENGINEERING
READY TO BUILD FOR
WHAT'S NEXT?
Start a conversation with Infrys security engineers and post-quantum specialists.