Imagine a digital highway that is ten times wider and faster than what we have today. This project builds the specialized 'toll booths' and 'on-ramps' (transceivers) that allow devices to send massive amounts of data almost instantly. It uses a clever new way of processing signals to keep the chips small, cheap, and energy-efficient.
Current wireless hardware cannot handle the extreme bandwidth and energy efficiency required for 6G. This prevents the rollout of ultra-high-speed connectivity needed for autonomous systems and high-fidelity AR/VR.
Two transceiver (TRx) demonstrators: a monolithic 22nm-FDSOI chip for V-band and a two-chip SiGe/III-V solution for D-band.
If you are a city operator dealing with traffic congestion — this project developed 6G transceiver technology that enables continuous data exchange between vehicles, roads, and traffic lights to optimize flow.
If you are a headset manufacturer dealing with lag and low resolution — this project developed chips with up to 16 GHz modulation bandwidth that provide immersive mixed-reality experiences.
If you are a utility provider dealing with inefficient power distribution — this project developed high-speed connectivity tools that allow smart energy grids to distribute power based on real-time demand.
The project uses a commercial, low-cost 22nm semiconductor technology to ensure the resulting microchips are cost-effective for widespread adoption.
Yes, the use of commercial 22nm FDSOI and SiGe technologies, combined with automated design flows, is intended to make the technology scalable.
Based on available project data, the results include designs for new technical concepts and automation algorithms intended for direct commercialization or the creation of spin-off businesses.
The project provides two solutions: a single-chip V-band solution and a two-chip D-band solution using advanced packaging technologies on PCBs.
The project aims to address challenges for the global introduction of 6G by 2030, with the project period ending in June 2027.
The consortium is heavily industry-driven with a 67% industry ratio, consisting of 4 SMEs and 2 universities across 5 countries. This structure suggests a strong focus on commercialization and rapid technology transfer, as the majority of partners are small-to-medium enterprises capable of spinning off new products.
Contact INCIRT GMBH in Germany for technical specifications on Fourier Domain converters.
Contact us to connect with the FirstTo6G consortium for early access to 6G TRx designs.
