ICE GENESIS focused on next-generation 3D icing simulation, supercooled large droplets (SLD), and snow — directly leveraging Montreal's cold-climate environment and aerospace engineering strength.
ECOLE POLYTECHNIQUE DE MONTREAL
Canadian engineering university contributing simulation, materials science, and cold-climate expertise to European transport, energy, and environment research.
Their core work
Polytechnique Montréal is one of Canada's leading engineering universities, contributing specialized simulation, materials science, and experimental expertise to European research consortia. Their H2020 work spans transport safety modeling, superconductor development for power grids, geomaterial stabilization, aircraft icing simulation, and biomass-to-gas conversion. As a non-EU partner, they bring North American engineering perspectives and cold-climate testing capabilities that complement European research teams. Their contributions tend to be technical and computational — numerical modeling, experimental databases, and materials characterization.
What they specialise in
GeoRes addressed performance durability and stabilization of soils, sediments, and tailings — turning mining and industrial waste into usable geomaterials for infrastructure.
FASTGRID developed advanced superconducting tapes for fault current limiters in HVDC grids — the only project with recorded EC funding (EUR 319,601).
FlexSNG (2021-2024) focused on gasification, gas cleaning, and production of biomethane and intermediate bioenergy carriers from biomass and waste.
InDeV investigated accident causation for vulnerable road users, likely contributing traffic modeling or data analysis expertise.
How they've shifted over time
Their early H2020 involvement (2015-2017) centered on transport safety and superconductor materials — applied engineering with clear industrial targets. From 2018 onward, the focus shifted toward environmental and sustainability themes: geomaterial waste reuse, icing certification for aviation safety, and biomass gasification for green energy. This trajectory suggests a deliberate pivot from pure industrial engineering toward climate-relevant and circular economy applications.
Moving toward green energy conversion and environmental engineering, making them increasingly relevant for climate and circular economy consortia needing North American partners.
How they like to work
Polytechnique Montréal exclusively participates as a partner or third party — never as coordinator, which is expected for a non-EU institution in H2020. Despite only 5 projects, they have worked with 86 unique partners across 26 countries, indicating they join large, broad consortia rather than small focused teams. This makes them an accessible international partner who integrates well into diverse European groups without seeking to lead.
With 86 consortium partners spanning 26 countries from just 5 projects, they are embedded in large pan-European networks. Their reach is genuinely global, connecting Canadian engineering capabilities with partners across most of Europe.
What sets them apart
As a top-tier Canadian engineering school, they offer something most EU partners cannot: cold-climate testing infrastructure, North American regulatory perspectives (relevant for aviation certification), and access to Canadian mining and energy sectors. Their breadth across transport, energy, materials, and environment — unusual for a non-EU participant — makes them a versatile specialist contributor. For consortium builders, they tick the "international cooperation" box while delivering genuine technical depth in simulation and materials characterization.
Highlights from their portfolio
- ICE GENESISAddresses a critical aviation safety gap — next-generation icing simulation including SLD and snow conditions — where Montreal's climate provides natural testing advantages.
- FASTGRIDTheir only project with recorded EC funding (EUR 319,601), working on superconducting fault current limiters for future HVDC grids — a high-impact energy infrastructure topic.
- GeoResMSCA-RISE project on turning waste soils, sediments, and mining tailings into resources — combines circular economy with geotechnical engineering.