Led DRAGY (drag reduction in turbulent boundary layers) and participated in IMAGE, ECO-COMPASS, ACASIAS, FIBRESHIP, and multiple aviation-focused transport projects.
CENTRE INTERNACIONAL DE METODES NUMERICS EN ENGINYERIA
Barcelona research centre developing numerical simulation methods and finite element software for aerospace, manufacturing, energy, and geotechnical engineering applications.
Their core work
CIMNE is a Barcelona-based research centre specializing in computational mechanics and numerical simulation methods for engineering problems. They develop finite element software, simulation tools for industrial manufacturing (casting, additive manufacturing, sintering), and high-performance computing frameworks for complex physics problems. Their work bridges academic numerical methods research and industrial application — helping companies simulate everything from aircraft drag reduction to nuclear waste repository behavior to building energy management. They are a major European hub for simulation-based engineering and decision support in production technologies.
What they specialise in
Coordinated FEXFEM (open source extreme scale FE software), CATALOG (computational catalog of multiscale materials), and ExaQUte (exascale uncertainty quantification for simulation).
Coordinated SimSolidAM (metal solidification in AM) and FORECAST (casting simulation), participated in CAxMan and EMUSIC for aerospace AM applications.
Participated in GrowSmarter, EDI-Net (smart meter data), Sim4Blocks (real-time energy management), and FLEXCoop (demand response for energy cooperatives).
Coordinated ProTechTion (industrial decision-making on complex production technologies) and contributed to convergence of HPC, machine learning, and simulation workflows.
Coordinated ToSubC (submarine landslides numerical modelling), NuWaSim (nuclear waste repository simulator), and participated in TERRE (geotechnical engineering training).
How they've shifted over time
In the early H2020 period (2014–2017), CIMNE focused heavily on aeronautics research dissemination, smart city energy demonstrations, and proof-of-concept commercialization of their simulation codes (FEXFEM, FORECAST, FLOODSAFE). From 2018 onward, their work shifted toward industrial decision-making powered by simulation (ProTechTion), advanced manufacturing processes like sintering and powder technology, and scaling their methods to exascale computing (ExaQUte). The trajectory shows a clear move from developing individual simulation tools toward building integrated simulation-based engineering platforms for industrial production.
CIMNE is moving from pure numerical methods research toward integrated simulation-decision platforms for manufacturing, combining HPC, machine learning, and discrete element modelling for industrial production workflows.
How they like to work
CIMNE balances leadership and partnership roles effectively — they coordinated 20 of 49 projects (41%), often leading smaller ERC Proof of Concept and CSA projects while joining larger RIA/IA consortia as simulation specialists. With 755 unique partners across 37 countries, they operate as a highly connected hub rather than working with a closed circle. This makes them an easy organization to integrate into new consortia — they are experienced at adapting their simulation expertise to diverse project contexts and partner configurations.
CIMNE has collaborated with 755 unique partners across 37 countries, making them one of the most broadly networked computational engineering centres in Europe. Their partnerships span from aerospace OEMs and energy utilities to universities and SMEs, with particularly strong ties across Western European research institutions.
What sets them apart
CIMNE sits at a rare intersection: they are simultaneously a world-class academic research centre in numerical methods AND a hands-on industrial simulation provider. Unlike pure universities that publish papers or pure consultancies that apply off-the-shelf tools, CIMNE develops the simulation methods themselves and then applies them to real industrial problems — from aircraft drag to nuclear waste to additive manufacturing. Their six ERC Proof of Concept grants demonstrate a deliberate strategy of turning research codes into exploitable software products.
Highlights from their portfolio
- FIBRESHIPLargest single project budget (EUR 971K to CIMNE) for designing complete large-length fibre-reinforced polymer ships — an unusual application of their simulation capabilities to shipbuilding.
- ProTechTionCoordinated EUR 668K project that best represents their strategic direction: using simulation-based engineering for industrial decision-making on complex production technologies.
- ExaQUteCoordinated EUR 699K project pushing uncertainty quantification to exascale computing — positions CIMNE at the frontier of HPC-enabled simulation.