2018 has been an eventful year for OnBoard Security® and the markets we serve. The year started with a bang when OnBoard Security was spun off from Security Innovation®, becoming an independent company with the mission to help Automotive and IoT manufacturers stay ahead of the curve in cyber security. As an independent company, we are better positioned to focus on filling critical cyber security gaps in our target markets.
Topics: Cryptography, Automotive, Privacy, Internet of Things, V2X, Embedded Security, Autonomous Vehicles, Cyber Security, TPM, TSS, Trusted Computing, V2V, SCMS, Research, Connected Vehicles, DSRC, Blockchain, V2I
Recently, our customer, Rivetz, announced their Dual Roots of Trust solution to protect private keys in a mobile phone, even if one of the systems is compromised. The Rivetz software generates and distributes the private key between the two roots – the Trusted Execution Environment (TEE) running in ARM TrustZone and the SIM card. This means that both roots would have to be compromised in order to get the user’s private key. Since the TEE is controlled by the phone manufacturer and the SIM is controlled by the mobile carrier, the user’s data is also protected from insider attacks or a vendor security breach.
The world is facing an increasing threat from quantum computers. All widely deployed public key cryptosystems, namely, RSA, ECC and (EC)DH, will be broken due to Shor’s algorithm running on a quantum computer. To mitigate this threat, NIST started a call for proposal to identify cryptographic algorithms that are secure against quantum computers (a.k.a, post-quantum cryptosystems or PQC).
There are four primary use cases for implementing trusted computing with a Trusted Platform Module (TPM), the cryptographic module standardized by the Trusted Computing Group. This blog will give a brief overview of those use cases, which can be combined to create more complex and powerful solutions.
There are two worlds of computer security - high-end systems and then everything else. Both high- and low-end systems typically employ “top-down” defenses to harden their attack surfaces. These are “software-only” security techniques.
Topics: NTRU, Cryptography, Quantum Computing, Automotive, Privacy, Internet of Things, V2X, Embedded Security, Autonomous Vehicles, Regulation, Cyber Security, TPM, TSS, Trusted Computing, V2V, BCAM, SCMS, Research, Connected Vehicles, DSRC
The IoT, or the "Internet of Things," represents an exciting period of innovation in our lives. It describes a world of devices all connected to the internet, a world in which inanimate technology that we use and see every day is becoming smarter. It also predicts a continuous journey towards greater ease and convenience, a future in which technology interacts with us as much as we do with it. As you can imagine, this comes with both perks and drawbacks.
Over the past year, there have been a rush of Internet of Things (IoT) cyber-attacks, the most famous of which was the IoT Denial of Service attack on Dyn that disrupted internet traffic for a day. As more IoT devices are deployed, the frequency of serious cyber-attacks will only increase, and increase quickly. Many consumer IoT manufacturers are under intense schedule and cost pressures where a delay to add cyber security could be the difference between success and failure. Industrial IoT companies have a different problem, where long product lifecycles make security difficult to manage and almost impossible to retroactively deploy.