Traffic recorded today can be decrypted once quantum computers are large enough. Every system we run for clients already uses post-quantum key exchange, so what gets recorded stays sealed.
Book a readiness call →This is our current posture, written like a test report. Every automation we deliver (Neo-Agent, AI-NATOR, Zephyr) inherits it from day one, at no extra cost.
| Layer | Status | What it protects |
|---|---|---|
| Key exchange | In production | Post-quantum on every channel we operate, so recorded traffic stays private against a future quantum attacker. |
| Digital signatures | In production | Post-quantum signatures guard our most sensitive access and the records we sign. |
| Data at rest | In production | 256-bit encryption for stored data and backups. |
| Public web certificates | Waiting on industry standards | Browsers and certificate authorities don't issue post-quantum certificates yet. We track the standards and will switch when they ship. |
We list the layer that isn't done yet on purpose. A posture you can't check isn't a posture.
Post-quantum migration isn't a forecast. Standards are published and procurement dates are set; requirements flow down to every vendor in the supply chain.
NIST published the first post-quantum cryptography standards: FIPS 203, 204 and 205.
Under CNSA 2.0, new U.S. national-security system acquisitions must be quantum-resistant from January 1, 2027.
The U.S. government's goal is to mitigate quantum risk across its systems by 2035.
For teams that need a plan before the deadlines reach their contracts. Three deliverables, in order.
Where encryption lives across your systems and vendors: protocols, keys, certificates and the libraries behind them.
Layer by layer, what is already post-quantum, what isn't, and which data a recorded-today attack would expose.
A sequenced plan with owners and dates, aligned to the CNSA 2.0 and NIST FIPS 203/204 milestones.
Ask us to show it on the call.