Life-Cycle, SUPRA2DMAT, and MetabolismOrigins all centre on molecular self-assembly, from life-like materials to 2D device architectures.
CENTRE INTERNATIONAL DE RECHERCHE AUX FRONTIERES DE LA CHIMIE FONDATION
Strasbourg-based chemistry research foundation specializing in supramolecular self-assembly, catalysis, 2D materials, and the chemical origins of life.
Their core work
The FRC (International Center for Frontier Research in Chemistry) in Strasbourg is a research foundation that pushes the boundaries of chemistry — from designing self-assembling supramolecular materials to engineering proteins synthetically and exploring how biological metabolism may have originated from simple chemical reactions. Their work spans catalytic synthesis, light-matter interactions in molecular systems, and the development of 2D materials like graphene for applications in optoelectronics and water purification. They are a talent incubator for exceptional chemists, predominantly funded through prestigious ERC grants awarded to individual principal investigators.
What they specialise in
CARBONFIX (carbon-fixing cycles), ReverseAndCat (reversible catalytic reactions), and MetabolismOrigins (prebiotic catalysis) demonstrate deep catalysis expertise.
MOLUSC investigates molecules under strong light-matter coupling, while FlexNanoOLED applied this to OLED device engineering.
HiChemSynPro developed a high-throughput platform combining microfluidics with enzyme engineering for combinatorial protein synthesis.
SUPRA2DMAT engineers multifunctional 2D material devices, and GRAPHEME (ERC-POC) targets graphene membranes for water treatment.
MetabolismOrigins and Life-Cycle both explore how chemical reaction networks can exhibit life-like behaviour — feedback loops, self-amplification, and metabolic cycles.
How they've shifted over time
In 2015–2018 the FRC focused on quantum simulators (RYSQ), synthetic biology-adjacent protein engineering (HiChemSynPro), and carbon fixation chemistry (CARBONFIX) — relatively discrete research threads. From 2018 onward, a clear convergence emerged around dynamic, responsive molecular systems: self-assembling materials with designed feedback (Life-Cycle), reversible catalytic networks (ReverseAndCat), 2D supramolecular architectures (SUPRA2DMAT), and ultimately the chemical origins of metabolism (MetabolismOrigins). The trajectory shows a shift from isolated chemical phenomena toward understanding chemistry as interconnected, life-like systems.
The FRC is moving toward systems chemistry and prebiotic research — expect future work on self-sustaining chemical networks, artificial metabolisms, and functional supramolecular materials that blur the line between chemistry and biology.
How they like to work
The FRC operates overwhelmingly as a project coordinator (9 of 10 projects), almost exclusively through ERC grants awarded to individual principal investigators. This means they run independent, PI-driven research groups rather than large multi-partner consortia — their 18 unique partners across 10 projects reflects relatively small or single-PI team structures. Working with them typically means engaging a specific research group leader, not a centralized institutional partnership office.
Modest network of 18 partners across 8 countries, reflecting the PI-driven ERC model where consortia are small or non-existent. Their one participation as partner (RYSQ, a quantum technologies RIA) shows they can contribute to larger consortia when the topic demands it.
What sets them apart
The FRC is one of the few European research centres where frontier chemistry is the explicit institutional mission — not a department within a larger university, but a foundation dedicated to chemistry at its most ambitious boundaries. Their ERC success rate is remarkable: 7 ERC grants (4 Starting, 2 Advanced, 1 Consolidator) indicates they attract and retain top-tier principal investigators. For potential partners, this means access to world-class chemists working on problems that sit at the intersection of chemistry, materials science, and the origins of life.
Highlights from their portfolio
- SUPRA2DMATLargest single grant (EUR 2.5M ERC Advanced) tackling the molecular-level engineering of 2D materials for optoelectronics — bridging supramolecular chemistry with device applications.
- MetabolismOriginsTheir most recent and conceptually ambitious project (EUR 2.15M), investigating how biological metabolism could have emerged from prebiotic chemistry — a fundamental origin-of-life question.
- GRAPHEMEAn ERC Proof of Concept grant translating graphene membrane research into a practical water purification application — their only project explicitly aimed at technology transfer.