Imagine if your smart devices had a digital health checkup that never ended, instead of just one check at the factory. This system acts like a lifelong security guard that watches for intruders and automatically updates the locks when a new threat is found. It ensures that a device stays safe from the day it is built until the day it is thrown away.
IoT devices are often insecure and become easy entry points for hackers. Once deployed, they are difficult to update and certify, making them a permanent liability for businesses.
A security management system that includes hardware-level protection (TEE/SE), a secure boot process, and a remote update mechanism for patching devices over-the-air.
If you are a manufacturer dealing with the risk of factory floor devices being hacked—this project developed a system using RISC-V and secure microcontrollers that protects credentials and allows secure remote updates. This ensures your machines stay operational and secure without needing manual technician visits.
If you are an operator dealing with thousands of connected sensors in the field—this project developed a monitoring system that detects attacks in real-time and reconfigures device behavior to block threats. This prevents a single compromised sensor from taking down an entire power grid.
If you are a brand dealing with strict EU laws like the Cyber Resilience Act—this project developed a method for continuous security assessment and over-the-air patching. This helps you prove your products remain compliant with regulations throughout their entire use-life.
Based on available project data, specific pricing or cost structures are not provided.
The project focuses on a modular architecture and decentralized response to handle a broad spectrum of IoT environments, suggesting scalability for large deployments.
Based on available project data, the licensing terms are not specified, though it utilizes open architectures like RISC-V.
Yes, it specifically addresses requirements from the Cybersecurity Act (CSA), the Cyber Resilience Act (CRA), and the NIS2 directive.
It integrates at the device level using Trusted Execution Environments (TEE) and Secure Elements (SE) such as ST33 microcontrollers.
The project is heavily industry-driven, with 9 out of 13 partners coming from the private sector (69% industry ratio). This high concentration of companies, including 5 SMEs across 8 countries, indicates that the results are designed for commercial viability rather than just academic theory.
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