All three projects (ExaFLOW, ASIMIA, SSeCoID) involve CFD applied to industrial aerodynamics and flow simulation.
MCLAREN RACING LIMITED
Formula 1 constructor contributing extreme aerodynamic design challenges as an industrial end-user for advanced CFD and flow control research.
Their core work
McLaren Racing is a world-renowned Formula 1 constructor headquartered in Woking, UK, where aerodynamic performance is a critical competitive advantage. In the H2020 context, they serve as a high-value industrial end-user for advanced computational fluid dynamics (CFD) research — providing real-world aerodynamic design challenges that push simulation methods to their limits. Their participation channels academic advances in flow simulation, stability analysis, and high-order numerical methods directly into one of the most demanding engineering environments on the planet.
What they specialise in
ASIMIA and SSeCoID both focus on advanced high-order methods and stability techniques for flow computation.
SSeCoID (2021-2025) specifically targets stability and sensitivity methods for flow control in industrial design contexts.
ExaFLOW (2015-2018) focused on enabling fluid dynamics simulations at exascale, requiring massive parallel computing infrastructure.
How they've shifted over time
McLaren's H2020 journey shows a clear shift from foundational high-performance computing toward applied design optimization. Their earliest project (ExaFLOW, 2015) addressed raw computational power — enabling fluid simulations at exascale. By 2019-2025, their focus sharpened considerably toward practical engineering outcomes: high-order CFD methods (ASIMIA) and stability/sensitivity analysis for active flow control and industrial design (SSeCoID). This progression reflects growing confidence that the computational infrastructure is maturing, and the real frontier is now extracting actionable design intelligence from simulations.
McLaren is moving toward using advanced CFD not just for passive analysis but for active flow control and design sensitivity — expect future interest in digital twins and real-time aerodynamic optimization.
How they like to work
McLaren never coordinates EU projects — they participate as an industrial partner or third party, contributing domain expertise and validation use cases rather than managing research. With 17 consortium partners across just 3 projects, they operate in medium-to-large academic-industrial consortia typical of MSCA training networks and FET research actions. Their role is that of a demanding end-user: they bring real-world engineering problems that force researchers to make their methods practical, not just theoretical.
McLaren has collaborated with 17 unique partners across 7 countries through just 3 projects, indicating involvement in broad European consortia led by universities and research institutes. Their network spans the European applied mathematics and computational engineering community.
What sets them apart
McLaren Racing brings something almost no other H2020 partner can: a globally recognized, ultra-competitive industrial environment where aerodynamic margins of fractions of a percent translate into race wins. For academic researchers in CFD, partnering with McLaren means their methods get tested against the most demanding real-world benchmarks in motorsport engineering. For consortium builders, McLaren's name adds immediate credibility and a powerful dissemination story to any proposal involving fluid dynamics or simulation.
Highlights from their portfolio
- SSeCoIDLargest single EC contribution (EUR 606,345) and their most recent project, focusing on stability and sensitivity methods directly applicable to aerodynamic design — the closest to McLaren's core business.
- ExaFLOWTheir earliest H2020 involvement, tackling the grand challenge of enabling fluid dynamics at exascale — a project that connected McLaren's computational needs with Europe's HPC research community.