Projects GROWMOF (metal-organic frameworks), EXTMOS (organic semiconductors), INREP (indium-free electrodes), ISOBIO (bio-aggregate insulation), and HEAPPs (pyroelectric energy harvesting) demonstrate sustained materials expertise.
UNIVERSITY OF BATH
UK research university strong in advanced materials, process engineering, environmental chemistry, and social science, with a high project coordination rate.
Their core work
The University of Bath is a research-intensive UK university with deep strengths in advanced materials, chemical engineering, and computational modelling. Their H2020 portfolio spans organic semiconductors and photovoltaics, bio-based construction materials, industrial process control, and social science research on memory and urban cohesion. They combine fundamental science (ERC grants in evolutionary genomics, metal-organic frameworks) with applied engineering in energy systems, aerospace composites, and environmental chemistry. Their work frequently bridges lab-scale materials research with real-world manufacturing and environmental applications.
What they specialise in
INTERWASTE (flame retardants, e-waste, wastewater-based epidemiology), TreatRec (wastewater treatment), and recent keywords on heavy metals and energy recovery show strong environmental analytical capability.
Recent-period keywords cluster around process tomography, process control, sensor technology, inline fluid separation, and microwave tech — indicating a growing process engineering portfolio.
UNREST (transnational memory and mass graves), CO-CREATION (urban regeneration and citizen engagement), NEWFAMSTRAT (gender stratification), and ARCHES (cultural heritage inclusion) form a distinct social science cluster.
EXTREME (dynamic loading of aerospace composites), THOMSON (mild hybrid vehicles), and recent keywords on aircraft, servovalves, and piezoelectric actuators point to active transport-sector work.
EoCoE (HPC for energy applications), EXTMOS (organic semiconductor modelling), and recent keywords on massive parallel computing and process modelling show growing computational capacity.
How they've shifted over time
In the early period (2015–2018), Bath focused heavily on sustainable construction materials, green energy technologies like bio-aggregate insulation and indium-free photovoltaics, and foundational materials science including metal-organic frameworks and organic semiconductors. By the later period (2019–2022), the emphasis shifted toward industrial process engineering — process tomography, sensor technology, control theory, and inline fluid separation — alongside continued environmental work on heavy metals and energy recovery. This evolution suggests a move from fundamental materials discovery toward applied process-scale engineering and environmental monitoring.
Bath is pivoting from lab-scale materials research toward industrial process control and environmental sensing, making them an increasingly relevant partner for manufacturing scale-up and pollution remediation projects.
How they like to work
Bath coordinates 44% of its projects (29 out of 66), an unusually high rate for a university, signalling strong project management capability and willingness to lead consortia. With 521 unique partners across 45 countries, they operate as a network hub rather than relying on a small circle of repeat collaborators. Their mix of large MSCA training networks (MSCA FIRE) and focused ERC grants shows they are comfortable both orchestrating multi-partner programmes and running independent research teams.
Bath has built a remarkably wide network of 521 distinct consortium partners spanning 45 countries, reflecting true pan-European and global reach. As a UK institution, they have maintained extensive EU collaboration even through the Brexit transition period.
What sets them apart
Bath stands out for its unusual breadth — few universities combine serious materials science, industrial process engineering, environmental chemistry, AND social science within a single H2020 portfolio. Their high coordinator rate (44%) means they don't just contribute expertise; they design and manage projects, making them a reliable lead partner. For consortium builders, Bath offers a rare combination: a mid-sized university with the coordination track record of a much larger institution and the flexibility to bridge physical sciences with social research.
Highlights from their portfolio
- EvoGenMedLargest single grant (EUR 2.26M ERC) in evolutionary genomics — demonstrates Bath's capacity to win top-tier competitive funding for fundamental research.
- MSCA FIREEUR 2.09M training network connecting doctoral researchers with industry partners across digital entertainment and sustainable chemistry — shows Bath's strength in building intersectoral pipelines.
- GROWMOFEUR 1.74M ERC grant on metal-organic framework crystal growth and thin film formation — a flagship project in their core materials science expertise.