Imagine your smart devices are like doors to your business; if one lock is broken, a thief can enter every room. This project builds a super-strong, invisible lock directly into the computer chips of these devices. It ensures that only trusted hardware can talk to the network, making it nearly impossible for hackers to break in using AI or future quantum computers.
SMEs struggle to implement the high level of security required for IoT 5.0, leaving them vulnerable to network-wide exploitation if a single device is compromised.
Hardware IPs for RF attack detection, a security subsystem with a low-power processor, and a corresponding secure software architecture.
If you are a factory equipment manufacturer dealing with the risk of a single corrupted sensor compromising your entire production line — this project developed specialized hardware and software that establishes trust between devices to prevent network-wide exploitation.
If you are an IoT device developer dealing with the high cost of implementing complex security for small-scale products — this project developed a security subsystem with a low-power processor and cryptographic extensions to lower the burden of security implementation.
If you are a hardware security provider dealing with new threats like side-channel attacks or jamming — this project developed RF attack detection and mitigation hardware IPs to ensure the resilience of cyber-physical systems.
Based on available project data, specific pricing is not mentioned, but the project aims to reduce the security burden for SMEs whose resources are currently outpaced by security demands.
The project focuses on the 'economical backbone' of Europe by targeting SMEs and the microelectronics industry, suggesting a scalable approach via hardware IPs and software architectures.
Based on available project data, the specific licensing model is not disclosed, though the project involves 17 industry partners who are developing the hardware and software.
Integration is achieved through a security subsystem featuring a low-power processor and cryptographic extensions designed for end-to-end security in IoT processing chains.
The project period runs from 2023-10-01 to 2027-05-31, indicating that final results will be available by mid-2027.
The consortium is heavily weighted toward commercial application, with a 53% industry ratio comprising 17 companies, including 13 SMEs. This strong industrial presence, combined with 10 universities and 5 research centers across 7 countries, indicates a high potential for technology transfer from the lab to the European SME market.
Contact Universite Gustave Eiffel in France
Contact us to connect with the 17 industry partners developing these secure IoT chips.
