Three projects (INAPEM, NOVAMAG, PARTIAL-PGMs) focus on advanced permanent magnets, alloy synthesis, and related automotive catalysis — all involving density functional theory and micromagnetic simulations.
UNIVERSITY OF DELAWARE
US research university contributing materials science, fundamental physics, and mathematical modeling expertise to European H2020 consortia as a specialist partner.
Their core work
The University of Delaware is a major US research university that contributes specialized expertise to European research consortia, primarily in materials science for permanent magnets, fundamental physics, and applied mathematics. Their H2020 involvement spans computational materials modeling (density functional theory, molecular dynamics), precision metrology through nuclear clocks, and signal processing mathematics. They consistently serve as a non-EU knowledge partner brought in for their deep domain expertise rather than as project drivers.
What they specialise in
ThoriumNuclearClock (their largest funded project at EUR 1.55M) works on thorium nuclear clocks for testing fundamental constants and dark matter searches.
EXPOWER applies Prony methods, sparse interpolation, and structured matrices to push exponential analysis into practical innovation.
TURNEYES examines partisan polarization and voter responses to political scandal — an unusual social science contribution for a primarily STEM-oriented portfolio.
How they've shifted over time
From 2016 to 2019, the University of Delaware focused squarely on materials science — permanent magnets, alloy design, and computational materials modeling through projects like NOVAMAG and INAPEM. Starting around 2020, their H2020 portfolio diversified sharply into fundamental physics (nuclear clocks), applied mathematics (exponential analysis), and even political science (partisan polarization). This shift suggests the university's EU engagement broadened from a single strong department to multiple research groups independently joining European consortia.
Their trajectory shows increasing disciplinary diversity in EU collaborations, moving from a focused materials science contributor toward a multi-department transatlantic research partner.
How they like to work
The University of Delaware never coordinates H2020 projects — all six participations are as partner or third party, reflecting their role as a US-based specialist contributor invited for specific expertise. With 55 unique consortium partners across 19 countries, they connect broadly rather than deeply with any single group. This wide but non-leading engagement pattern is typical of strong non-EU universities that add credibility and specialized capabilities to European consortia without taking on administrative coordination.
They have collaborated with 55 unique partners across 19 countries, indicating a wide European network built through diverse project topics. Their reach is genuinely global given their US base and broad European engagement, though they are not a central hub in any single thematic cluster.
What sets them apart
As a top-tier US research university participating in H2020, the University of Delaware brings transatlantic research credibility and access to American research infrastructure that most European-only consortia lack. Their rare combination of computational materials science depth and emerging capabilities in fundamental physics makes them a versatile specialist partner. For consortium builders, their willingness to join as third party or partner (never demanding coordination) makes them a low-friction addition with high scientific value.
Highlights from their portfolio
- ThoriumNuclearClockTheir only directly funded H2020 project (EUR 1.55M under ERC Synergy Grant), working on thorium nuclear clocks — an ambitious fundamental physics endeavor linking atomic clocks to dark matter searches.
- NOVAMAGCore materials science project developing critical-materials-free permanent magnets, combining computational modeling (DFT, molecular dynamics) with experimental alloy synthesis — directly relevant to the EU's raw materials strategy.
- EXPOWERApplies advanced mathematical methods (Prony, sparse interpolation) to real-world signal processing problems, showing the university's breadth beyond physical sciences.