Current public-key cryptography will be broken by sufficiently powerful quantum computers. Organizations need to understand the threat landscape to plan migration.
Who Should Care
Security leaders, infrastructure teams, and anyone responsible for protecting long-lived sensitive data.
Modern systems rely on encryption like RSA and Elliptic Curve Cryptography. These are secure today — but vulnerable to quantum attacks. Adversaries are already storing encrypted data today to decrypt later using quantum systems.
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Financial Records
Transaction histories, account data, and financial models
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AI Memory Systems
Training data, context memory, and model outputs
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Email + Communications
Executive correspondence and privileged channels
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Blockchain Keys
Digital asset wallets, signing keys, and smart contracts
Harvest Now, Decrypt Later: Nation-state actors are capturing encrypted traffic today, banking on quantum computers to break it within the decade.
The Approach
What Quantum-Resilient Architecture Requires
01
Post-Quantum Cryptography
Adoption of ML-KEM (CRYSTALS-Kyber) and ML-DSA (CRYSTALS-Dilithium), aligned with NIST FIPS 203/204 standards.
02
Hybrid Encryption Layer
Classical + PQC combined. Fail-safe cryptographic redundancy at every boundary.
03
Cryptographic Policy Engine
Centralized enforcement of approved algorithms, key rotation, and encryption standards across the stack.
04
Memory Encryption
All stored intelligence encrypted with forward-secure methods at the persistent storage layer.
05
Gateway-Level Protection
AI gateways secured end-to-end with provider isolation and encrypted routing.