Cryptographic inventory & risk assessment
Every algorithm, key size and protocol mapped against "harvest now, decrypt later" quantum threat models — so you know exactly what is exposed, and when.
We design cryptographic architectures built to survive the transition to quantum computing — post-quantum readiness, zero-knowledge proofs and cryptographic architectures you can defend.
Data encrypted today can be harvested now and decrypted later. We help you find that exposure, migrate away from it, and prove the new architecture actually holds.
Every algorithm, key size and protocol mapped against "harvest now, decrypt later" quantum threat models — so you know exactly what is exposed, and when.
Hybrid classical / post-quantum schemes — lattice-based and hash-based among them — rolled out incrementally, without breaking production systems along the way.
Zero-knowledge proof systems and formally-reasoned cryptographic architectures, so security claims are provable, not just believed.
From post-quantum migration to zero-knowledge proof systems, we design for systems that have to keep working in production, not just pass a review.
NIST-track algorithm selection and hybrid migration paths that protect data being harvested today for decryption once quantum computing matures.
ZK-SNARK and ZK-STARK-class systems for privacy-preserving verification — identity, compliance and blockchain use cases that prove a claim without revealing the data behind it.
Threat-modelled key management, rotation and protocol design, reviewed by practitioners who design cryptosystems, not just checklists that audit them.
Every recommendation is shipped and load-tested inside production systems — not left as a whitepaper or a proof of concept that never leaves the lab.
Migration paths and proof systems are scoped per engagement and reviewed against current NIST guidance.
Tell us about the systems, data or protocols you need to protect. We'll come back with a pragmatic assessment and a migration path that doesn't stop production.
From post-quantum migration to zero-knowledge proofs — we design cryptographic architectures built to still hold once quantum computing arrives.