Protect your foundations with the most secure silicon device
Our Q-Locked devices secure you against the threats of today and tomorrow.
Using our proprietary Q-Locked techniques, our silicon has been designed with the most constrained and contested environments in mind. These considerations have informed how we approach silicon design, leading to the most secure system on a chip.
Look out for our Q-Locked logo on your hardware to make sure you’re secure.
-
70% of vulnerabilities are memory safety ones, leading to most cyber attacks globally.
Attackers use memory injection techniques to exploit these vulnerabilities in how software code is written and how it executed on a core in hardware. It's possible for attacker to access everything within a device through a single application's vulnerability.
Our Secure Core has been built from the hardware level up using fine-grained permission capabilities in memory, ensuring only an application that should have access to a memory block, can actually access that memory block.
We discuss some key observations in the field of memory vulnerabilities on the Insights and News section of our website.
-
We developed and integrated post-quantum cryptography accelerators on our silicon to enable the next generation of cryptography.
Traditional methods for cryptography include ECDH and RSA, which have been sufficient until now.
As the rate of quantum computing development accelerates with both improved qubit technology and better error correction protocols, with further innovation in the quantum algorithm & complexity fields, the need for migration to post-quantum cryptography today has accelerated.
Typically semiconductors have a life in-deployments of 5 years+ and migration to new cryptography can take significant time.
We offer PQC acceleration to enable this migration today, ready for the future threat.
Secure your IoT infrastructure with the most secure silicon device