AMADEUS
Automated and machine-learning-driven design and discovery of high-entropy ceramics for energy applications.
Scope: Multidisciplinary project.
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Leadership
Projects as coordinator
Prediction of dielectric constants in inorganic materials
Development of numerical approaches combining data exploration and modeling for the prediction of dielectric constants in inorganic materials.
Scope: Physics, computational materials science.
2DH2
Modeling electrochemical hydrogen evolution on two-dimensional-material-based electrodes in alkaline solution.
Scope: Electrochemistry, 2D materials, modeling.
Read moreRECIFE
Rational design concepts of engineered ceramics with integrated catalytically active metal sites for electrochemical energy conversion.
Scope: Multidisciplinary project.
Read moreCANaMIAS
Design of glassy cathode materials for sodium batteries, from advanced modeling and artificial intelligence to synthesis.
Scope: Multidisciplinary project.
Partnerships
Projects as partner
RevGeoIA
Development of geopolymer coatings optimized with artificial intelligence.
Coordinator: Sylvie Rossignol (IRCER).
Scope: Chemistry, materials science, geopolymers, artificial intelligence.
CERMETAD
Ceramic-embedded metamaterials for microwave application devices.
Coordinator: Steffen Ziesche (IKTS, Germany).
Scope: Chemistry, physics, functional materials, processes.
Read moreMAGEORXL
Architectured geopolymer materials for radomes operating in the X and L bands.
Coordinator: Sylvie Rossignol (IRCER).
Scope: Chemistry, physics, materials science, artificial intelligence.
Read moreENTROPIE
Development of new nanostructured catalytically active materials for 3D electrodes dedicated to electrochemical energy storage and conversion devices.
Coordinator: Samuel Bernard (IRCER).
Scope: Chemistry, materials science, electrocatalysis.
INTELLIGEO
Development of artificial intelligence algorithms for optimizing geopolymer coating formulations for antenna applications.
Coordinator: Ameni Gharzouni (IRCER).
Scope: Chemistry, materials science, geopolymers, artificial intelligence.
High-entropy alloy nanocatalysts for water electrolysis
Development of new self-supported nanocatalysts based on high-entropy metallic alloys for water electrolysis.
Coordinator: Samuel Bernard (IRCER).
Scope: Chemistry, materials science, electrocatalysis.
PIXIES
MXene-based composites as highly efficient electrocatalysts for alkaline water splitting.
Coordinator: Samuel Bernard (IRCER).
Scope: Multidisciplinary project.
Read moreSYNERGY
Synthesis and characterization of new composite electrocatalysts for hydrogen production and use as an energy vector.
Coordinator: Samuel Bernard (IRCER).
Scope: Chemistry, processes, shaping.
AMSES
Advanced modeling as a strategy to design glass and glass-ceramic materials for energy storage applications.
Coordinator: Carlo Massobrio (IPCMS).
Scope: Multidisciplinary project.
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Computational resources
High-performance computing support
Since 2019, I have coordinated multiple national allocations of HPC resources through French computing centers including IDRIS, CINES, and TGCC, enabling large-scale first-principles and machine-learning-driven simulations for materials science.
2025-A0180913426: 2.4M CPUh @ IDRIS, 2.5M CPUh @ CINES
2025-A0180910832: 1.8M CPUh @ IDRIS, 40k H100 GPUh @ IDRIS
2024-A0160913426: 2.6M CPUh @ IDRIS, 5.7M CPUh @ CINES
2024-A0160910832: 2.6M CPUh @ IDRIS, 2.0M CPUh @ CINES
2023-A0140913426: 3.5M CPUh @ IDRIS
2023-A0140910832: 10.54M CPUh @ IDRIS
2022-A0120910832: 11.6M CPUh @ IDRIS
2022-A0120913426: 2.5M CPUh @ IDRIS
2021-A0100910832: 7.75M CPUh @ IDRIS
2021-SA10spe00019: 15M CPUh @ TGCC
2020-A0080910832: 3.37M CPUh @ IDRIS
2019-A0060910832: 4.4M CPUh @ IDRIS