Post-quantum exposure: inventory certificates, protocols, PKI, key management, long-lived secrets and dependencies exposed to harvest-now-decrypt-later risk.
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Security technology · Engineering · Security assessments
Your cryptographic dependencies need a migration path you can actually execute.
Quantum readiness begins with understanding which applications, identities, certificates, protocols and long-lived information depend on vulnerable public-key mechanisms.
Engineering, evidence and operational results
See the work behind the offer
Follow a realistic engineering situation, from the first signal to the decision and the evidence handed over.
DEEP INFOSEC
What this means for your organisation
Quantum readiness begins with understanding which applications, identities, certificates, protocols and long-lived information depend on vulnerable public-key mechanisms. We review those dependencies with your architecture and operations teams and assess how standards-based post-quantum migration affects compatibility, performance and service continuity.
You receive a prioritized cryptographic inventory, candidate migration patterns, vendor and protocol dependencies, test requirements and a phased roadmap. Advanced quantum research is identified separately from production cryptographic engineering.
A practical starting point
Choose a starting scope, review the evidence and prepare a usable purchasing brief. Public service information is open to everyone; confidential architecture and qualification materials follow the secure dossier process.
Prepare a project brief ↗Selected readings ↗The challenges we solve
Specialist workstreams
Post-quantum cryptography transition planning, cryptographic inventories and research-led engineering exploration.
Standards-based migration: assess hybrid negotiation, ML-KEM/ML-DSA applicability, cryptographic agility, interoperability and performance against relevant published standards.
Advanced research: investigate photonic, symbolic and quantum-inspired computation through separately governed experimental projects.
Verification and assurance: stage compatibility tests, key lifecycle review, threat models, rollback plans and independent evaluation before sensitive deployment.
What your team receives
What your team receives
- Cryptographic asset inventory and migration dependency graph
- Priority and sequencing roadmap for post-quantum transition
- Interoperability and performance-test protocol
- Research statement, maturity boundary and independently testable criteria
Defined entry offers
Acceptance is tied to the agreed deliverables and documented review.
01
Technical assessment
Post-quantum exposure: inventory certificates, protocols, PKI, key management, long-lived secrets and dependencies exposed to harvest-now-decrypt-later risk.
Cryptographic asset inventory and migration dependency graphRequest a technical and commercial proposal ↗02
Design and controlled evaluation
Standards-based migration: assess hybrid negotiation, ML-KEM/ML-DSA applicability, cryptographic agility, interoperability and performance against relevant published standards.
Priority and sequencing roadmap for post-quantum transitionRequest a technical and commercial proposal ↗03
Delivery, review & continuity
Verification and assurance: stage compatibility tests, key lifecycle review, threat models, rollback plans and independent evaluation before sensitive deployment.
Research statement, maturity boundary and independently testable criteriaRequest a technical and commercial proposal ↗Scope & architecture
How a project progresses
Risk assessment and standards-aligned crypto-agility engineering are distinct from experimental quantum or photonic research; speculative resistance claims are not substitutes for cryptanalysis.
- 01
Discover and define: assets, objectives, dependencies, data access, stakeholders and boundaries.
- 02
Design and validate: target architecture, methods, constraints, workplan and objective acceptance criteria.
- 03
Deliver and transfer: approved implementation, findings, tests, documentation, training and next-stage options.
Request a technical and commercial proposal
Start with a cryptographic inventory and the lifetime of data requiring protection.
Engineering and services that work together
What changes for your organization
Where this matters
Quantum readiness starts with a credible inventory of cryptography, data lifetimes and migration dependencies. We help organizations identify protocols and systems that will need post-quantum transition, establish priorities and test interoperability. Experimental research is clearly separated from deployable cryptographic controls so that technology strategy remains grounded in operational risk.
Solutions for your role
Begin with your decisions, risks and procurement obligations—not a generic product catalogue.
Connected systems, reliable information and locally operable infrastructure
University research and applied engineering network
Our work with university and research teams connects technical challenges to reproducible methods, experiments, professional learning and measurable operational use. Collaboration can involve attack-path modelling, AI security, post-quantum preparation, environmental and energy measurement, educational technology and sovereign data systems. Research, delivery and assessment responsibilities are defined for each programme.
Your project receives a research protocol, named workstreams and governance, technical outputs, validation criteria and a path from prototype to supported operations.
University research and applied engineering network ↗