SciTransfer
Organization

BCAM - BASQUE CENTER FOR APPLIED MATHEMATICS

Applied mathematics research center developing advanced numerical simulation methods for geophysics, manufacturing, aerodynamics, and biomedical applications.

Research institutemultidisciplinaryES
H2020 projects
15
As coordinator
7
Total EC funding
€2.8M
Unique partners
67
What they do

Their core work

BCAM is a research center in Bilbao specializing in applied mathematics — they develop advanced numerical methods, simulation tools, and computational models that solve real engineering and scientific problems. Their core competence is translating abstract mathematical theory (partial differential equations, finite element methods, multiscale modeling) into practical computational tools for geophysics, aerodynamics, materials design, and biomedical applications. They are particularly strong in high-performance computing simulations that bridge the gap between mathematical models and industrial or clinical reality.

Core expertise

What they specialise in

Advanced numerical methods and finite elementsprimary
5 projects

Core thread across GEAGAM, MATHROCKS, GEODPG, MSO4SC, and AEROSIMULAT — all centered on Galerkin methods, Petrov-Galerkin methods, and high-order finite element approaches.

Geophysical simulation and subsurface explorationprimary
3 projects

GEAGAM, MATHROCKS, and GEODPG all target Earth exploration, porous rock physics inversion, and CO2-sequestration simulation using advanced computational methods.

Computational fluid dynamics and aeroacousticssecondary
1 project

AEROSIMULAT applies high-order Galerkin methods to aerodynamics and aeroacoustics simulation for next-generation high-speed gas turbines.

Computational biomedical modelingemerging
2 projects

ViBRheo develops a virtual blood rheometer for thrombus characterization using multiscale modeling, while ASTROTECH applies computational neuroscience to understand astrocyte function.

Additive manufacturing and materials designsecondary
2 projects

ADAM² (their largest-funded project) connects microstructure analysis to manufacturing design, while ENABLE focuses on alloys behavior modeling.

Mathematical analysis and PDEsprimary
4 projects

DEDMEE, MinSol-PDEs, HADE, and StableIF demonstrate deep theoretical strength in differential equations, phase transitions, and minimal surfaces.

Evolution & trajectory

How they've shifted over time

Early focus
Geophysics and pure applied math
Recent focus
Industrial simulation and biomedical computing

In their early H2020 period (2015–2018), BCAM focused heavily on foundational applied mathematics — geophysical exploration methods, microscopic evolution equations, monetary policy forecasting, and mathematical optimization for societal challenges. From 2019 onward, their work shifted decisively toward industrial and biomedical applications: additive manufacturing, gas turbine aerodynamics, blood rheology for COVID-19 thrombosis, and computational neuroscience. The theoretical mathematical core remains, but the application domains have become more tangible and commercially relevant.

BCAM is moving from theoretical mathematics toward applied computational tools for manufacturing, energy (CO2 sequestration), and health — making them increasingly relevant for industry partnerships.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European25 countries collaborated

BCAM splits evenly between leading and joining projects (7 as coordinator, 7 as participant), showing they are comfortable in both roles depending on the topic. Their coordinated projects tend to be smaller MSCA fellowships and ERC grants (individual researcher-scale), while their participant roles are in larger collaborative research actions. With 67 unique partners across 25 countries, they maintain a broad European network rather than relying on a small circle of repeat collaborators.

BCAM has collaborated with 67 distinct partners across 25 countries, indicating a wide and well-distributed European network. Their participation in MSCA-RISE mobility projects (MATHROCKS, ASTROTECH) further extends their reach to international academic and research institutions.

Why partner with them

What sets them apart

BCAM occupies a distinctive niche: they are applied mathematicians who can build the computational methods that engineers and scientists need but cannot develop themselves. Unlike engineering labs that use off-the-shelf simulation software, BCAM creates the underlying algorithms — higher-order finite elements, multiscale models, goal-oriented adaptive solvers. For a consortium, this means they bring the mathematical engine that makes simulations faster, more accurate, or possible at all.

Notable projects

Highlights from their portfolio

  • ADAM²
    Their largest-funded project (EUR 356,740) as coordinator, bridging microstructure analysis with additive manufacturing — a clear move toward industrial application.
  • ViBRheo
    Designed a virtual blood rheometer for thrombosis characterization with COVID-19 relevance, showing BCAM can rapidly pivot mathematical tools toward urgent health challenges.
  • GEODPG
    Their most recent coordinated project applies space-time DPG methods to CO2 sequestration — connecting advanced math directly to climate-critical geophysical problems.
Cross-sector capabilities
energy (subsurface modeling, CO2 sequestration simulation)manufacturing (additive manufacturing, materials optimization)health (blood rheology, computational neuroscience)transport (gas turbine aerodynamics and aeroacoustics)
Analysis note: Strong profile with 15 projects and clear keyword data. Many early projects lack keywords, so evolution analysis relies partly on project titles. The center's mathematical nature means their contributions are often methodological (providing computational tools) rather than domain-specific, which makes sector classification inherently cross-cutting.