Mohamed Amara is a full-time Professor at the University of Pau and the Pays de l'Adour (UPPA) since 1996, affiliated with the Laboratory of Mathematics and their Applications (CNRS-UMR 5142). He served as its director (1999-2007), Director of the Doctoral School of Exact Sciences (ED211, 2007-2008), and UPPA's Scientific Council Vice-President (2008-2012). He has been UPPA's President since 2012 (re-elected until 2020). Education: Mathematics from University of Algiers (1973), Pierre and Marie Curie University (DEA 1974, Doctorate 1978, State Doctorate 1983) Academic Roles: Research Associate at Ecole Polytechnique (1978-1982), Algerian Electricity and Gas Company (1983-1992), Professor in Algiers (1988-1994), Tunis (1994-1995), and Associate Professor at Paris 6 (1995-1996) His research focuses on numerical simulation of partial differential equations for environmental/energy applications, including mechanics in porous media (petroleum engineering, geoscience), fluid mechanics (aerodynamics, estuarine hydrodynamics), non-Newtonian flows, and wave propagation. Articles highlight expertise in discontinuous Galerkin methods, Helmholtz problems, finite element discretization, and multiphysics systems. He managed 20 doctoral theses and led national mathematics programs at ANR (2007-2011). He chairs the Cocktail association for higher education IT systems and collaborates with INRIA's Magique 3D team (since 2006).
Olivier FARGES is a Senior Lecturer and HDR (Habilitation à Diriger des Recherches) holder at the University of Lorraine, affiliated with ENSGSI (École Nationale Supérieure de Géologie et Sciences Industrielles) within the Groupe INP. He serves as Director of Industrial Partnerships at ENSGSI and is part of the LEMTA Laboratory (CNRS-University of Lorraine), focusing on multiphysics and multiscale modeling of heat transfer in complex environments. His academic roles include teaching courses such as Heat and Mass Transfer, Fluid Mechanics, Scientific Computing Modeling, and Renewable Energy. Dr. FARGES holds a Ph.D. in Energy and New R&D (2014) and an Engineering degree in Energy Engineering (2010), both from the École de Mines Albi. His research emphasizes coupled conductive-radiative heat transfer in porous media, thermal property characterization of heterogeneous materials, and Monte Carlo-based computational methods for energy systems. He has contributed to advancements in photovoltaic system modeling, solar thermal power optimization, and urban climate studies. His work bridges theoretical and applied thermal engineering, with applications in sustainable energy systems, material science, and industrial partnerships. Key research themes include radiative transfer modeling, multiphysics simulation frameworks, and the development of innovative tools for thermal property measurement and energy performance assessment.
Steven LE CORRE is a University Professor at the Department of Thermal Energy Mechanics within the Nantes Thermal and Energy Laboratory (UMR_C 6607) at the University of Nantes . His work focuses on mechanical modeling and simulation, with applications spanning composites, complex fluids, and biomedical engineering. Current PhD Students: Sana Koubaa (Thermoplastic pultrusion), Violette Brulliard (Intervertebral disc modeling) Defended Theses: Arthur Levy (Ultrasonic welding of composites), Céline Dubois (X-FEM in automobile crashes), Jelmer Jongsma (Polymer adhesive structures), Guillaume Rückert (A-TIG welding fluxes), Yosra Guétari (Cutting simulation via X-FEM) Research interests include fibrous media modeling , multiphysical simulation , and applications to composite manufacturing processes , short-fiber-reinforced fluids , and hydrogel/tissue engineering . His work integrates computational mechanics with industrial and biomedical challenges. Professor LE CORRE is based at POLYTECH NANTES campus ( La Chantrerie, rue Christian Pauc ), with office R126 in the Isitem Building. His research is conducted in collaboration with the Nantes Thermal and Energy Laboratory, a CNRS-affiliated research unit.
Anne-Virginie SALSAC is a leading researcher in bioengineering and biomechanics at the University of Technology of Compiègne (UTC), France. She heads the Biomechanics and Bioengineering Laboratory (BMBI, UMR CNRS 7338) and has held an ERC Consolidator Grant (2017) from the European Research Council for her work on multiphysics modeling of microcapsules. Her research focuses on numerical simulation, microfluidics, and bioartificial capsule design for biomedical applications, including hemodynamics in vascular systems and minimally invasive therapies. She has pioneered techniques for microcapsule characterization and sorting, with applications in drug delivery and tissue engineering. SALSAC has collaborated internationally with institutions like Sorbonne Université, University College London, and Queen Mary University of London. Education: Advanced training in bioengineering, with postdoctoral experience in fluid mechanics and biomedical systems. Teaching: Leads graduate courses in mechanical properties of biological materials, microfluidics, and vascular flow modeling at UTC. Previously taught at UC San Diego and University College London. Awards: ERC Consolidator Grant (2017), European scholarship for excellence (2018). Her research integrates experimental and computational methods, emphasizing real-time prediction of capsule deformation and fluid-structure interactions. Key projects include the ERC-funded MultiphysMicroCaps initiative, which explores multiscale modeling of microcapsules under physiological flows. She has developed novel microfluidic tools for capsule sorting and mechanical property analysis, published in top journals like Physical Review E and Journal of Fluids and Structures . SALSAC advocates for scientific mediation, organizing international symposia such as the DynaCaps conference, and has engaged in public outreach via television and media features. Her work bridges fundamental research and clinical applications, with patents on microcapsule fabrication and embolization techniques.
Thomas Brunet is a researcher at the University of Bordeaux, specializing in physical acoustics and functional materials for acoustics. His work spans ultrasound physics, material characterization, and advanced modeling/simulation techniques. Key collaborations with research groups: APY (Physical Acoustics) , Functional Materials for Acoustics , and GCE (Civil and Environmental Engineering) . Focus areas: acoustic metamaterials , Anderson localization , contactless micromanipulation , and viscoelastic wave propagation . His publications (over 30 in the last decade) demonstrate expertise in ultrasonic imaging, nanophononics, and multiphysics problems involving mechanical, thermal, and fluid interactions. Collaborative projects include DuMAS (Sustainability of Materials) , IMC (Mechanical Engineering) , and MPI (Materials-Procedes-Interactions) initiatives. No formal awards or student advising details are publicly available in the provided data.
Daniel Hissel is a Professor of Electrical Engineering and Hydrogen Energy at the University of Franche-Comté, France. He serves as the Head of the SHARPAC research team (Systèmes Hydrogène, ActionneuRs, Production, stockAge et Conversion de l'énergie électrique) within the Energy Department of the FEMTO-ST laboratory. Since January 2020, he has been Deputy Director of the national hydrogen research federation FRH2 (FR CNRS). He was named IEEE Fellow in 2021 and serves as President of the French chapter of IEEE/VTS. His educational background includes: Engineering degree from École Nationale Supérieure d'Ingénieurs Electriciens de Grenoble (ENSIEG) in 1994 PhD from École Nationale Supérieure d'Electrotechnique, Electronique, Informatique, d'Hydraulique de Toulouse (ENSEEIHT) in 1998 Habilitation à Diriger des Recherches (HDR) in 2004 Daniel Hissel's research focuses on energy efficiency and the diagnostics/prognostics of energy systems, particularly in the field of hydrogen energy for applications in mobility and stationary systems. His work encompasses fuel cell technology, energy conversion systems, and the development of predictive maintenance strategies for hydrogen-based energy systems. He has made significant contributions to understanding degradation mechanisms in fuel cells and developing methods to extend their operational lifetime. His recent publications (2025) demonstrate a strong focus on PEM fuel cell technology for transportation applications, with particular emphasis on heavy-duty vehicles. His research spans multiple disciplines including power electronics, control systems, electrochemistry, and artificial intelligence applied to energy systems. Key themes include nonlinear control of power converters, predictive maintenance using machine learning, physics-based modeling of fuel cells, and analysis of degradation mechanisms. His notable scientific awards include: Blondel Medal (2017) CNRS Innovation Medal (2020) IEEE Fellow (2021) Senior Member of the Institut Universitaire de France (IUF) (2022) Gold Medal of the Société d'Encouragement au Progrès (2024) Professor Hissel has published over 600 articles in international journals and conferences. He previously served as Director of the FCLAB Research Federation (FR CNRS) from 2012 to 2019. He is also an administrator of the "Véhicule du Futur" competitiveness cluster, demonstrating his strong connections with industry. His research has significant practical applications in the development of hydrogen-based energy systems for sustainable transportation and stationary power generation. He leads the SHARPAC research team at FEMTO-ST laboratory, which focuses on hydrogen systems, actuators, production, storage, and electrical energy conversion. This team conducts cutting-edge research in hydrogen energy technology, contributing to France's national efforts in developing hydrogen as a key component of the future energy system.
Virginie Ehrlacher is a Professor at CERMICS, École des Ponts ParisTech (ENPC), France. She specializes in applied mathematics with a focus on high-dimensional problems, numerical analysis, and computational modeling. Her work bridges quantum chemistry, materials science, and machine learning through innovative mathematical frameworks. Education includes: PhD in Mathematics (2012) from ENPC: Mathematical models in quantum chemistry and uncertainty quantification Habilitation (2020) from Université Paris-Dauphine: Mathematical and numerical analysis of high-dimensional and multiscale problems in materials science Research spans multiscale modeling, tensor decompositions for high-dimensional systems, cross-diffusion equations, and scientific machine learning. Her work frequently addresses challenges in quantum mechanics, materials science, and computational physics using advanced numerical techniques. Publications emphasize: Algorithms for high-dimensional PDEs and eigenvalue problems Model reduction techniques (tensor networks, reduced basis methods) Cross-diffusion systems with biological/physical applications Neural networks for scientific computing Awards and distinctions: Irène Joliot-Curie Prize (2023) Chevalier de l’Ordre National du Mérite (2025) Leadership includes: ERC Starting Grant HighLEAP (2023–2028) ERC Synergy project EMC2 (2020–2026) ANR JCJC project COMODO (2019–2023) She co-leads the EMS Topical Activity Group on Scientific Machine Learning. Affiliated with the CERMICS laboratory, she collaborates on interdisciplinary teams tackling multiscale and data-driven modeling challenges.
Éric Lunéville is a Researcher in Applied Mathematics at ENSTA Paris, where he is affiliated with the Applied Mathematics Unit (UMA) and the Wave Propagation, Mathematical Study and Simulation (POEMS) research group. His work focuses on mathematical modeling and numerical simulation of wave phenomena, particularly in the context of acoustics and waveguides. Dr. Lunéville's research interests span wave propagation theory, mathematical simulation techniques, aeroacoustics, waveguide analysis, acoustic multicasting, optimization methods, inverse problems, and numerical approaches for high-frequency diffraction. His work demonstrates a strong connection between theoretical mathematics and practical engineering applications, particularly in the field of acoustics. Analysis of his publication record reveals a consistent focus on waveguide theory and numerical simulation methods. His research shows progression from fundamental mathematical modeling of wave phenomena to practical software implementations like the XLiFE++ library. A significant portion of his work addresses inverse problems in wave propagation, particularly related to crack detection and non-scattering phenomena in waveguides. His research also demonstrates expertise in developing transparent boundary conditions and multimodal approaches for complex waveguide configurations. Knight of the Order of Academic Palms Dr. Lunéville has made substantial collaborative contributions to wave propagation research, working with prominent researchers including Anne-Sophie Bonnet-Ben Dhia, Laurent Bourgeois, and Jean-François Mercier. His development of the XLiFE++ software library represents a significant bridge between theoretical mathematics and practical computational tools for engineers and scientists working in wave propagation and related fields. As part of the POEMS research group at ENSTA Paris, Dr. Lunéville contributes to a collaborative environment focused on mathematical wave propagation studies with applications across multiple disciplines including acoustics, structural mechanics, and non-destructive testing. His work supports broader institutional research goals in sustainable energy, transportation, and defense sectors through advanced mathematical modeling and simulation techniques.
Giovanni Ghigliotti is a Lecturer and researcher at the University of Grenoble Alpes since 2014, affiliated with the LEGI laboratory (UMR 5519). He is part of the MOST team, specializing in Turbulence Modeling and Simulation. His research focuses on multiphase fluid dynamics, particularly phase-change phenomena like boiling and cavitation, with an emphasis on numerical simulation to study hydrodynamic interactions, wetting, and material deformation. He holds a PhD in Fluid Mechanics from Joseph-Fourier University (2010). His work spans cavitation erosion mechanisms, fluid-structure interaction modeling, and heat transfer in multiphase systems. He contributes to the development of the Yales2 code, a parallel numerical simulation tool for complex flows. In teaching, he leads the Energy pathway of the Master's program in Process Engineering at Grenoble Alpes, instructing fluid mechanics, numerical methods, and thermodynamics. His research also involves collaborations with the GIS SUCCESS group, advancing high-performance computing and turbulence modeling. Key research themes include: Boiling crisis dynamics and thermal insulation effects Cavitation bubble collapse and material erosion Centrifugal microencapsulation process analysis Fluid-structure interaction in multiphase flows Unstructured grid simulations for phase change phenomena His recent publications (2024-2019) demonstrate expertise in non-Newtonian fluid simulation, cavitation erosion mechanics, and advanced computational methods for multiphase systems.
Denis Jeandel is a Researcher at the Laboratory of Fluid Mechanics and Acoustics (LMFA), University Claude Bernard Lyon 1, France. He specializes in turbulence modeling, flow instability analysis, and fluid dynamics. His work encompasses a wide range of applications, including electric arc dynamics, combustion chamber aerodynamics, and numerical methods for multiphysics problems. He is part of the Turbulence & Instabilities research team and contributes to advancements in computational fluid dynamics (CFD), finite element methods, and boundary layer studies. Research Interests: Turbulence Modeling and Simulation Electric Arc Behavior in Circuit Breakers Internal Aerodynamics of Combustion Chambers Thermal-Hydraulic Phenomena Lagrangian Stochastic Modeling for Atmospheric Dispersion Shock-Wave and Multiphase Flow Dynamics Publications Highlight Key Contributions: His work spans numerical methods for second-order turbulence closures, coupled electromagnetic-aerothermal simulations, and boundary layer stability analysis. Recent publications focus on improving accuracy in high-speed flow simulations and electric arc initiation modeling. Awards and Recognition: No specific awards mentioned in the provided texts, though his sustained research output indicates active recognition in the field. Lab and Team Involvement: He collaborates with the Turbulence & Instabilities team at LMFA to address complex fluid dynamics challenges, leveraging state-of-the-art experimental and numerical tools.
Olivier Chadebec is a CNRS Research Director at G2Elab, the power electrical engineering research department of Université Grenoble Alpes in France. He leads the 'Models, Methods and Methodologies Applied to Electrical Engineering' research team (MAGE group) and the ERT-CMF (Low Magnetic Fields Technological Research Group) at G2Elab. He was involved in creating the International Laboratory 'James Clerk Maxwell' in collaboration with the University of Lyon and Brazilian universities. Chadebec received his engineer and Ph.D. degrees in Electrical Engineering from the Grenoble Institute of Technology in 1997 and 2001. After a post-doctorate with Schneider Electric, he joined CNRS in 2003 as a Research Associate. He received his 'Habilitation à Diriger les Recherches' in 2011 and became a Research Director in 2015. He also spent a year in 2012 as a research associate at the Federal University of Santa Catarina in Brazil. His research focuses on computational electromagnetics applied to electrical energy conversion, developing numerical models, algorithms, and simulation tools for electromagnetic device analysis. His key research areas include finite element methods, integral methods, inverse problems, and low magnetic field metrology. He actively contributes to the development of the MIPSE platform commercialized by Altair Engineering via Flux software. His recent publications (2023-2025) show a strong focus on advanced computational methods for electromagnetic problems, including multiscale modeling, tensor compression techniques, FEM-BEM coupling for magnetoelectric effects, and optimization algorithms for electrical machine design and fuel cell diagnostics. His work demonstrates a consistent progression toward more efficient computational approaches for complex electromagnetic problems. Chadebec has supervised over 30 PhD students since 2006, with thesis topics spanning computational electromagnetics, inverse problems, fuel cell diagnostics, and submarine magnetic signature analysis. His research has significant applications in electrical machine design, fuel cell technology, submarine degaussing, and electromagnetic compatibility. He leads the MAGE research team and the ERT-CMF (Low Magnetic Fields Technological Research Group) at G2Elab, and has been instrumental in developing the MIPSE simulation platform used in industry through collaboration with Altair Engineering.
Julien FAVIER is a Professor at Aix-Marseille Université, where he directs the M2P2 laboratory and coordinates the H2020 FALCON project on fluid-structure interaction in aeronautics. He also serves as an associate editor for Computers and Fluids . Research Focus: Fluid-structure interaction (FSI), Lattice Boltzmann Method (LBM), Immersed Boundary Method (IBM), turbulent and compressible flows Applications: Biomedical (aortic valves, mucus transport), aerospace (hypersonic flows), and mechanical systems (rupture/fragmentation) Scientific Contributions include: Developing stable explicit FSI solvers for LBM-IBM coupling Modeling metachronal wave dynamics in cilia arrays Advancing compressible LBM with rotating overset grids Studying drag reduction via flexible filament coatings Pioneering non-Newtonian fluid transport simulations Technical Expertise spans: Multi-grid and dual-time stepping techniques GPU acceleration for heterogeneous architectures Viscoelastic and Herschel-Bulkley flow modeling Validation of immersed boundary methods for turbulent flows
Prof. Didier Trichet is a full Professor in Electrical Engineering at Polytech'Nantes (School of Engineering) of Nantes University, France. He became chair of the IREENA lab (Nantes-Atlantique Electrical Energy Research Institute) in 2022 after serving as former head of Nantes University's Master 2 Electrical Energy international program. PhD in Electrical Engineering (Nantes University, 1999) Accreditation to supervise researchers (2012) His research focuses on advanced numerical modeling of multi-physic and multi-scale electromagnetic phenomena applied to low frequency devices, electrothermal processes, Non-Destructive Testing (NDT), diagnosis of complex electrical structures, fuel cell power trains, and power electronics. He has authored/co-authored over 130 papers and 32 technical reports, with expertise in FP7, H2020, and PHC projects. Recent publications analyze: Carbon fiber composite conductivity via inversion methods Domain decomposition for electromagnetic simulations Topology optimization of actuators Inter-ply percolation in laminated composites Magnetic permeability evaluation using eddy currents Induction welding of composites Scientific Awards: 2 research awards from French Ministry of Education IEEE Transactions on Magnetics Associate Editor French Excellence Research Grant recipient since 2007
Marty Philippe is a Professor at Université Grenoble Alpes and a member of the Équipe Energétique within the LEGI (Laboratoire des Écoulements Géophysiques et Industriels). He collaborates extensively with the CEA-Grenoble on thermal energy intensification and hydrogen storage. His research focuses on heat storage, hydrogen storage in metal hydrides (in collaboration with the Institut Néel), and the influence of wettability on boiling heat transfer. He previously led the Master of Process Engineering at Université Joseph Fourier until 2015 and managed the Energy Team at LEGI until 2014. His work integrates Numerical simulations of boiling flows in concentrated solar plants, Hydrogen storage systems using magnesium hydride, Thermal energy storage with phase change materials (PCMs), and Experimental studies on heat transfer in microchannels and multiphase flows. Key research trends in his articles include advancements in thermal energy storage (e.g., LiBr/H₂O absorption systems), numerical modeling of phase change phenomena, and optimization of heat exchangers for industrial applications. His studies often bridge computational fluid dynamics with experimental validation, addressing challenges in renewable energy systems and thermal management. He has contributed to interdisciplinary projects, such as the development of a prototype for long-term solar heat storage and the design of hydrogen tanks with integrated heat management. His work also explores material science applications, including nanostructured MgH₂ for enhanced hydrogen absorption/desorption. Lab affiliations include the LEGI’s facilities like the tunnel hydrodynamique and soufflerie à bas niveau de turbulence , enabling experimental validation of his computational models.
Hélène Barucq is a Senior Research Scientist (Research Director) at Inria Bordeaux Sud-Ouest and the Head of the MAGIQUE-3D project team. She has been affiliated with Inria since 2008, previously holding roles at the University of Pau and Pays de l’Adour. Her research focuses on numerical simulation of wave propagation phenomena, including absorbing boundary conditions, discontinuous Galerkin methods, and inverse problems, with applications in seismology and helioseismology. She collaborates with institutions like TOTAL and leads strategic initiatives like the DIP (Depth Imaging Partnership). Her academic career includes a Ph.D. from University Bordeaux I (1993) and an Habilitation from the University of Pau (2002). Roles: Scientific leader of MAGIQUE-3D, co-leader of Exa-MA project, and vice-chair of Inria's Evaluation Committee. Education: Ph.D. in Applied Mathematics (1993), Habilitation (2002). Her research interests span computational mathematics, wave propagation, and numerical methods for PDEs. She has published extensively in high-impact journals like Journal of Computational Physics and Astronomy & Astrophysics , and collaborates internationally on projects involving seismic imaging and solar dynamics.
