Core work across SelectX (MEMS selectors for neuromorphic memory), NANOSMART (nano switches, antennas, sensors), CHIRON (nanoelectromechanical resonators), and NANOPOLY (nano Rx/Tx modules).
INSTITUTUL NATIONAL DE CERCETAREDEZVOLTARE PENTRU MICROTEHNOLOGIE
Romanian national research institute specializing in MEMS/NEMS devices, 2D nanomaterials, and micro/nanotechnology for electronics, IoT, and quantum computing.
Their core work
IMT Bucharest is Romania's national research institute for micro- and nanotechnology, specializing in the design and fabrication of nanoscale electronic components, MEMS/NEMS devices, and advanced materials integration. They develop ultra-low power nano components (switches, antennas, sensors), explore spin-wave and quantum computing hardware, and engineer smart nanomaterials for energy harvesting and IoT applications. Their work bridges fundamental nanoelectronics research with applied domains including medical microfabrication, automotive electronics, and RF/microwave devices.
What they specialise in
Consistent engagement with 2D nanomaterials, CNTs, MoS2, TMDCs, and hafnium zirconium oxide across NANOSMART, NANOPOLY, NANO-EH, and BIONANOPOLYS.
CHIRON focused on magnonics and spin-wave computing; IQubits on silicon spin qubits and multi-gate MOS transistors for quantum computing.
NANO-EH project specifically targets nanomaterial-based energy harvesting and storage for next-generation Internet-of-Things.
NANOPOLY involves reconfigurable antennas, RFIC, and mmWave microwave devices; NANOSMART includes nano antenna development.
BIONANOPOLYS (2021-2024) represents a new direction into nano-enabled bio-based polymer composites for packaging and textiles.
How they've shifted over time
IMT's early H2020 work (2015-2018) centered on fundamental nanoelectronics: MEMS selectors for neuromorphic computing (SelectX) and automotive microelectronics (3Ccar). From 2018-2021, the focus broadened significantly into spin-wave computing, magnonics, quantum computing hardware, and ultra-low power nano components — essentially exploring multiple post-CMOS computing paradigms simultaneously. Most recently (2020-2024), a clear pivot toward application-oriented work has emerged: energy harvesting nanomaterials for IoT, bio-based nanocomposites for packaging, and medical microfabrication — suggesting a shift from pure nanoelectronics research toward commercializable nanomaterial applications.
IMT is moving from fundamental nanoelectronics research toward application-ready nanomaterials — energy harvesting, bio-based composites, and medical devices — making them increasingly relevant for industry-facing projects.
How they like to work
IMT overwhelmingly operates as a participant (9 of 11 projects), contributing specialized micro/nanotechnology expertise to larger consortia rather than leading them. Their two coordinator roles were a Marie Curie fellowship (SelectX) and a conference organization (ENF2019), not large collaborative research projects. With 166 unique partners across 27 countries, they are a well-connected hub — comfortable integrating into diverse European consortia and bringing niche fabrication and characterization capabilities that complement larger teams.
IMT has built an extensive European network of 166 unique consortium partners spanning 27 countries, indicating broad reach across the continent rather than reliance on a few repeat collaborators. Their participation in ECSEL joint undertaking projects (3Ccar, Moore4Medical) connects them to major industrial electronics ecosystems.
What sets them apart
IMT is one of the very few research institutes in Eastern Europe with deep, demonstrated capability across the full nano/micro technology stack — from materials (2D materials, CNTs, nanocellulose) through device fabrication (MEMS/NEMS, FETs) to system integration (RF modules, sensors). For consortium builders, they offer rare geographic diversity (Romania, an underrepresented region in H2020) combined with genuine technical depth, not token participation. Their involvement in FIT-4-NMP explicitly positions them as a bridge for bringing underrepresented regions into mainstream European nanotechnology research.
Highlights from their portfolio
- IQubitsTheir largest single grant (EUR 498,250) and their entry into quantum computing hardware — silicon spin qubits represent a high-ambition research direction.
- CHIRONPositions IMT in the emerging field of magnonics and spin-wave computing, a potential post-CMOS paradigm, with work on magnetoelectric multiferroics.
- NANO-EHBridges fundamental nanomaterials expertise (HfZrO, MoS2) directly to a commercial application — IoT energy harvesting — signaling their shift toward market-relevant research.