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SHIFT · Project

Next-Generation Semiconductor Chips for Faster and More Energy-Efficient 6G and Satellite Networks

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Imagine the brain of your phone needing to handle way more data without getting hot or draining the battery. This work creates new types of high-performance electronic chips that act like super-highways for data. It's like upgrading from a narrow country road to a multi-lane freeway for wireless signals and satellites.

By the numbers
10
innovative telecommunications system demonstrators
44
consortium partners
140-170GHz
electrical characterisation frequency range
The business problem

What needed solving

Current semiconductor technology cannot meet the combined demand for higher transmission power and lower energy consumption required by 6G and satellite networks. This leads to overheating and inefficient data speeds in next-gen hardware.

The solution

What was built

Industrialized SiGe BiCMOS and RF GaN semiconductor technologies, including 'FEM' modules and 3D integrated packaging for mm-wave antennas.

Audience

Who needs this

6G Infrastructure ManufacturersSatellite Communication OperatorsHigh-speed Optical Network ProvidersAerospace Electronics Designers
Business applications

Who can put this to work

Telecommunications
enterprise
Target: Network Infrastructure Provider

If you are a network provider dealing with the energy demands of 6G rollout — this project developed SiGe BiCMOS and RF GaN technologies that provide higher transmission power and better energy efficiency. This allows for faster network access and trunks.

Aerospace
enterprise
Target: Satellite Communications Manufacturer

If you are a satellite manufacturer dealing with signal integrity and heat in space — this project developed 3D integration and Active Mold Packaging for mm-wave antennas. This simplifies RF systems and improves heat dissipation.

Defense
enterprise
Target: Earth Observation System Integrator

If you are a defense contractor dealing with radiation interference in Earth observation networks — this project developed chips with verified radiation immunity. This ensures reliable device performance in harsh orbital environments.

Frequently asked

Quick answers

What is the cost or price of these new semiconductor technologies?

Based on available project data, specific pricing or cost per unit is not provided; however, the project includes environmental and economic impact assessments to evaluate viability.

Can these technologies be produced at an industrial scale?

Yes, the project is led by STMicroelectronics and involves 22 industry partners, specifically aiming to industrialize SiGe BiCMOS and RF GaN technologies.

How is the IP and licensing handled for the developed chips?

Based on available project data, specific licensing terms are not listed, but the consortium covers the entire value chain from laboratories to manufacturers.

How do these chips integrate into existing hardware?

The project developed 'FEM' modules and new assembly techniques like Active Mold Packaging to solve RF signal integrity and heat dissipation issues.

What is the timeline for market availability?

The project runs from 2022-12-01 to 2026-11-30, suggesting that industrial validation via 10 demonstrators is ongoing through 2026.

Consortium

Who built it

The consortium is heavily industry-driven, with 22 industrial partners (50% of the total) and 11 SMEs, indicating a strong push toward commercialization. Led by a global semiconductor giant (STMicroelectronics) and including 44 partners across 8 countries, the group spans the entire value chain from academic research (18 universities) to final manufacturing.

How to reach the team

Contact STMicroelectronics France regarding SiGe BiCMOS55X and RF GaN developments.

Next steps

Talk to the team behind this work.

Contact us to identify which of the 10 demonstrators matches your hardware roadmap.