GaN-based power amplification is central to both ATOS (X-band space radar) and 5G_GaN2 (5G base station transceivers), making it the single thread running through all their H2020 work.
MEC - MICROWAVE ELECTRONICS FOR COMMUNICATIONS SRL
Italian SME designing GaN and SiGe MMICs for space radar and 5G millimeter-wave base stations, specialising in chip-level RF circuit and packaging integration.
Their core work
MEC is a Bologna-based SME specialising in the design of Monolithic Microwave Integrated Circuits (MMICs) using compound semiconductor and SiGe BiCMOS processes, covering frequencies from X-band through Ka and E-band. Their core contribution to research consortia is chip-level circuit design: power amplifiers, low-noise amplifiers, and complete transmit/receive modules for active antenna arrays. They work across two demanding application domains — space-grade Earth observation radar systems and next-generation 5G base station transceivers — applying the same GaN and CMOS design expertise to both. Advanced packaging, particularly System-in-Package integration of millimeter-wave circuits, is a growing part of their portfolio.
What they specialise in
5G_GaN2 explicitly targets Ka and E band frequencies, requiring advanced linearity and modeling expertise at frequencies above 30 GHz.
The ATOS project lists SiGe BiCMOS core-chip as a distinct keyword, indicating MEC can design in silicon-germanium processes alongside III-V compound semiconductors.
ATOS focused on active antennas with dedicated transmit and receive modules for X-band Earth observation, a system-level integration skill beyond bare-chip design.
5G_GaN2 keywords include packaging, System in Package, and 3D integration — areas that appear only in their more recent project, suggesting an expanding capability.
How they've shifted over time
MEC entered H2020 with a space-radar focus: their ATOS work centred on GaN power amplifiers and SiGe BiCMOS chips for X-band active antenna modules used in Earth observation systems — a domain where extreme reliability and radiation tolerance matter. Their second project, 5G_GaN2, pivoted that same GaN expertise toward commercial telecom, addressing 5G base station transceivers at millimeter-wave frequencies with a strong new emphasis on packaging and system integration. The shift is significant: from monolithic chip design for a single space application to multi-technology integration (GaN + RF CMOS, 3D packaging) for a mass-market wireless infrastructure context.
MEC is moving from pure chip design toward system-in-package integration at millimeter-wave frequencies, positioning themselves at the intersection of space-heritage reliability and commercial 5G infrastructure — a combination that is increasingly relevant for dual-use and satellite communication programs.
How they like to work
MEC participates exclusively as a consortium partner — they have not led any H2020 project — indicating they prefer to contribute deep technical expertise within a larger coordinated effort rather than taking on administrative and management responsibilities. Across two projects they engaged 20 distinct partners across 9 countries, suggesting they operate comfortably in mid-size international consortia where their MMIC design role is well-scoped. Working with MEC likely means receiving focused chip-level deliverables: they are unlikely to drive consortium strategy but will own their technical work-package with specialist precision.
MEC has built a network of 20 consortium partners across 9 European countries through just two projects, which implies richly connected partnerships relative to their project count. Their Italy-based location in Bologna — a hub for electronics and photonics research — likely connects them to the broader Northern Italian industrial and academic RF ecosystem.
What sets them apart
MEC occupies a rare dual-use niche: they apply the same GaN MMIC design skills to both space-grade radar systems and commercial 5G base stations, which most RF houses treat as entirely separate markets. As a small SME, they bring the agility and specialist depth that large semiconductor foundries cannot offer in a project consortium — they design, model, and characterise circuits at the chip level rather than selling off-the-shelf components. For consortium builders, MEC fills the custom MMIC design slot that connects system architects to the foundry, a role that is genuinely hard to find at SME scale.
Highlights from their portfolio
- ATOSDemonstrates MEC's space-heritage credentials — designing GaN power amplifiers and SiGe BiCMOS chips for X-band Earth observation active antenna arrays is one of the most demanding RF environments, and successful participation signals foundry-quality design discipline.
- 5G_GaN2Shows MEC's ability to transfer space-grade GaN expertise into the high-volume 5G base station market, including millimeter-wave Ka/E band design and advanced System-in-Package integration — a commercially significant capability.