Core theme across EXTMOS, iSwitch, SEPOMO, MILORD, UHMob, and MITICS — spanning charge transport modeling, photovoltaic molecules, and organic electrochemical transistors.
UNIVERSITE DE MONS
Belgian university specializing in organic semiconductors, sustainable polymers, and metal-organic frameworks for carbon capture and green materials.
Their core work
Université de Mons (UMONS) is a Belgian university with deep expertise in organic semiconductors, advanced polymer science, and carbon capture materials. Their research groups design and characterize molecular materials — from organic electronics for photovoltaics and transistors to biodegradable polyesters and metal-organic frameworks (MOFs) for CO2 adsorption. They also contribute to environmental monitoring (pollinator health, ecosystem services) and fundamental physics (higher-spin quantum gravity). Their practical output ranges from new sustainable polymer formulations to industrial-scale carbon capture process design.
What they specialise in
SUSPOL (organocatalysis for sustainable polymers), BIODEST (biodegradable polyesters), NIPU (non-isocyanate polyurethanes), and DEMONH (2D organic hybrids) demonstrate a polymer design pipeline from synthesis to characterization.
MOF4AIR (EUR 2.2M, coordinator) develops metal-organic frameworks for CO2 adsorption in power production; GRAMOFON explored graphene aerogel-based adsorbents for CO2 capture.
COLORAMAP (EUR 1.3M, coordinator) on constrained low-rank matrix approximations, and HiSS (EUR 2M, coordinator) on higher-spin symmetry in quantum gravity.
PoshBee (pan-European bee health assessment) and Safeguard (wild pollinator safeguarding) represent a newer engagement with biodiversity and ecosystem services research.
PRIMOGAIA (prepolarized MRI at Earth field), VIVOIMAG (multimodal in vivo imaging of bone transplants), and iConsensus (biopharmaceutical process sensing) show capability in measurement science.
How they've shifted over time
In the early H2020 period (2015–2018), UMONS focused on fundamental organic semiconductor modeling (EXTMOS), photonics mobility (MULTIPLY), and training networks around organic electronics and sustainable polymers. From 2019 onward, their portfolio shifted toward applied materials with direct industrial relevance — carbon capture via MOFs (MOF4AIR, their largest project), sustainable non-isocyanate polyurethanes (NIPU), and bioelectronics (MITICS). They also expanded into environmental science (Safeguard) and secured two large ERC-scale grants in mathematics and theoretical physics (COLORAMAP, HiSS), signaling growing research maturity and funding ambition.
UMONS is pivoting from fundamental molecular science toward industrially applicable materials for decarbonization and green chemistry, while maintaining strong computational and theoretical foundations.
How they like to work
UMONS operates primarily as a specialist partner (18 of 26 projects), but has demonstrated credible coordination capacity with 7 coordinated projects including two above EUR 2M. Their 282 unique partners across 39 countries indicate a broadly networked institution that collaborates widely rather than relying on a fixed cluster. The MSCA-heavy portfolio (training networks, COFUND) suggests they are well-integrated into European doctoral training ecosystems, making them a natural fit for consortia that need training and research capacity in materials science.
UMONS has built an extensive European network of 282 unique consortium partners across 39 countries, reflecting broad geographic reach well beyond the Wallonia region. Their participation in MSCA training networks and large RIA consortia gives them connections spanning Western Europe's major research universities and industrial partners.
What sets them apart
UMONS sits at the intersection of organic molecular science and industrial materials applications — a combination that is rare for a mid-sized Belgian university. Their ability to bridge fundamental theory (quantum gravity, matrix approximations) with applied materials engineering (MOFs for carbon capture, biodegradable polymers) makes them a versatile partner. The C2W COFUND project (EUR 2.2M) specifically funds experienced researcher mobility into Wallonia, meaning they actively recruit international talent and can embed visiting researchers into collaborative projects.
Highlights from their portfolio
- MOF4AIRLargest project (EUR 2.2M, coordinator) — develops metal-organic framework adsorbents for industrial carbon capture in power production, their most commercially relevant work.
- HiSSEUR 2M ERC-level grant coordinated by UMONS on higher-spin symmetry in quantum gravity — demonstrates capacity for frontier fundamental research.
- C2WEUR 2.2M MSCA-COFUND bringing experienced researchers to Wallonia — signals institutional investment in becoming an international research hub.