For the age of AI and quantum computing, we pair an SRAM-PUF Root of Trust with NIST-standard PQC to build security that never stores its keys.
We combine an SRAM-PUF Physical Root of Trust with NIST-standard PQC to build security that never stores its keys.
From trust inside the chip to encrypted traffic at the network edge, we secure the deepest layer first.
Ciphertext harvested today can be decrypted once quantum computers arrive. Start preparing with quantum-resistant security now.
The physical properties of SRAM give every device its own unique Root of Trust.
The key is rebuilt from the PUF only when needed, and is never kept anywhere otherwise.
Key exchange and digital signatures move to algorithms built for the quantum era.
An FPGA-based crypto architecture runs core security functions outside of software.
However strong the algorithm, security collapses once the key is exposed. AI automates attacks, and quantum computers force a move away from today’s public-key systems. So Quantum Integsure redesigns security not at the algorithm, but from where the key begins.
As long as keys live in Flash, EEPROM or secure storage, that key is what attackers ultimately go after.
Our answerNon-Stored Root Key
Once a flaw in the OS, firmware or application is exploited, key management itself becomes attack surface.
Our answerHardware-Enforced Security
Public-key systems built on RSA and ECC must migrate step by step to PQC.
Our answerML-KEM × ML-DSA
A hardware security module that combines an SRAM-PUF Root of Trust with PQC cryptography.
A security gateway that sits in front of your existing network and moves its traffic to PQC-based encryption.
Trust starts from SRAM power-up values that differ on every chip, then flows through lattice-based PQC and a hardware crypto engine into the HSM and TLS Gateway.
A new pioneer of
quantum security
We protect not only the algorithm,
but the origin of the key.
Security for the age of AI and quantum computing starts again at the deepest layer.
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