NIST's post-quantum cryptography standards are no longer a research topic — they are working their way into automotive, medical, and industrial procurement requirements. Embedded and IoT devices are the hardest place to retrofit post quantum cryptography: constrained memory, real-time timing budgets, and firmware that is difficult to update once shipped make PQC algorithms for embedded systems a genuinely different engineering problem than swapping a TLS library on a server.
Embien has already shipped the evidence. Our team built a quantum safe server for a high-security application, engineered a quantum-secure messenger application, and delivered a quantum-secure BLE module — three genuine post quantum cryptography deliveries, plus a dedicated Insight on the need for post-quantum cryptography for the technical case behind it.
Four engineering disciplines make PQC algorithms for embedded systems production-ready rather than theoretical, and the same disciplines underpin every post quantum cryptography engagement we take on.

A PQC migration starts at the root of trust — secure boot that can be updated as cryptographic algorithms evolve, without a hardware respin.

Key management engineered for the larger key and signature sizes that PQC algorithms for embedded systems introduce, without breaking existing firmware signing pipelines.

Update pipelines built to carry a hybrid classical and post quantum cryptography signature scheme through the transition period, so fielded devices stay verifiable.

Remote firmware update infrastructure hardened for constrained IoT endpoints, the same discipline behind our quantum-secure BLE module work.
From a quantum safe server architecture down to the embedded endpoint, these are the capabilities behind Embien's post quantum cryptography delivery record.

Secure boot and firmware trust chains designed to carry post quantum cryptography signatures without a hardware redesign.

Firmware update pipelines proven on a quantum safe server deployment, adapted for constrained embedded and IoT endpoints.

Selecting and integrating PQC algorithms for embedded systems — lattice-based, hash-based, or hybrid cryptographic algorithms — sized to real memory and timing budgets.
Tell us about your device fleet, key lifetimes, and compliance timeline. An engineer with real post quantum cryptography delivery experience will follow up.

Post quantum cryptography replaces cryptographic algorithms that are vulnerable to future quantum computers with algorithms believed to resist them. For embedded and IoT devices with long field lifetimes, planning the migration now avoids a costly retrofit later.
Tell us about your device fleet and compliance timeline. An engineer will follow up directly.