Lionel Pichon is a leading researcher at the Laboratory of Electrical and Electronic Engineering of the University of Paris. His primary affiliations include the Department of Electrical and Electronic Engineering of Paris, where he specializes in advanced electromagnetic research. His work focuses on Electromagnetics , Electromagnetic Compatibility (EMC) , and Wireless Power Transfer , with particular emphasis on composite materials, biomedical applications, and automotive systems. Expertise in numerical methods (FDTD, FIT, DGTD) for electromagnetic simulations Pioneer in shielding effectiveness analysis for composite materials Developer of AI-driven approaches for dielectric property characterization Over 70 publications since 2017 highlight his contributions to fields like inductive power transfer systems, medical device EMC, and GPR imaging techniques. Collaborates extensively with institutions globally, including research on antenna design for implantable medical devices and electromagnetic compatibility in healthcare facilities. Current research trends emphasize machine learning integration with traditional electromagnetic analysis to optimize system performance and safety standards.
Fabrice Duval is a Researcher-Lecturer and Head of the Technical Research and Transfer Platform at CESI. He holds a Habilitation to supervise research from Rouen University (2016) and a PhD in Electrical Engineering from Université Paris-Saclay (2007). His research focuses on Industrial Performance Optimization, Electromagnetic Compatibility (EMC), and robotics-driven manufacturing systems. He leads the 'Engineering and Numerical Tools' research team and manages the CESI FabLab. His educational activities include teaching Electromagnetism, Electricity, and Embedded Systems to engineering students (1st/2nd years and masters). He has supervised numerous PhD theses, including those on EMC in electric vehicles, motor impedance modeling, and PEEC-based EMI analysis. His work emphasizes practical applications, such as the CoRoT project (2016-2021) improving flexible manufacturing systems with autonomous/collaborative robots. Key research themes include robotics task allocation (e.g., auction-based optimization), digital twin integration for resilient systems, and synthetic data for industrial object detection. His publications span peer-reviewed journals and conferences, addressing topics like magnetic shielding effectiveness in automotive applications and modular mobile manipulator coordination. Awards: While no specific honors are listed, his extensive supervision record and participation in high-impact projects reflect his academic standing. He actively organizes scientific events and contributes to industry-research partnerships. Lab involvement: As FabLab manager, he bridges academic research with hands-on innovation, fostering experimental prototyping in electromechanical systems and smart manufacturing technologies.
National Higher School of Electronics and its ApplicationsFrance
Bruno Delacressonniere is an Associate Professor at ENSEA, affiliated with the Quartz laboratory and Electronic Systems department. His research focuses on RF electronics, electromagnetic compatibility (EMC), and advanced electronic systems including optical communications and sensor technologies. He teaches courses in analog electronics, microelectronics, and sensor systems. His research activities span nanophotonics for network-on-chip (NoC) architectures, reliability analysis of RFID systems, and innovative antenna designs for energy harvesting. He has contributed to advancements in optically controlled oscillators, SiGe-based phototransistors, and tunable microwave components using CMOS/SiGe technologies. Delacressonniere has supervised numerous Master’s theses and projects (PFE) focusing on embedded systems and RF design. His work bridges theoretical research with practical implementations, emphasizing energy-efficient solutions and high-reliability electronics for harsh environments. He leads the Electronic Systems team at Quartz, collaborating on projects involving 3D optical integration, microwave filter design, and photonics-based interconnects for multiprocessor systems. His publications reflect a strong emphasis on integrating nanophotonics and advanced semiconductor technologies for next-generation electronic systems.
David Baudry is a Research Professor and Research Director at CESI, heading the Engineering & Digital Tools research team. He holds an HDR (2010) and PhD (2005) from the University of Rouen, specializing in Electromagnetic Compatibility and near-field measurement systems. His research focuses on digital twins, AR/VR integration in industrial contexts, human-robot collaboration, and data lifecycle modeling. Current projects include leading the PIA JENII initiative (2021-2025) and the European BATTWin project. He advises multiple PhD candidates exploring topics like student mobility optimization, human-motion analysis, and energy-flexible scheduling. Active in scientific councils (LINEACT, ENIB), he has authored over 40 publications in journals like IEEE Transactions and Engineering Applications of Artificial Intelligence, emphasizing XR, digital twin applications, and Industry 4.0 infrastructure. His work bridges advanced technologies with practical industrial challenges, fostering innovation in smart systems and cyber-physical production. Education: HDR, University of Rouen, 2010: "Characterization and modeling of near-field couplings for EMC applications" PhD, University of Rouen, 2005: "Design, validation, and operation of a near-field electromagnetic measurement device" Engineering Degree, University of Caen, 1999: Materials Science Research Themes: Digital twins and immersive technologies (VR/AR) for industrial applications Human-robot collaboration frameworks Data modeling for product lifecycle and smart manufacturing systems Fog computing architectures for Industry 4.0
Yvan Avenas is a Lecturer at the Department of Computer Science, Electronics, and Electrical Engineering, Grenoble Institute of Technology. His research focuses on power electronics, thermal management of semiconductor devices, and advanced packaging techniques including 3D integration and ferrofluid cooling. Doctor of Electrical Engineering Electrical Engineering Aggregation Research activities include thermal characterization of power modules, development of high-density SiC power modules, and innovative cooling solutions. He leads the ANR DESTINI project and heads the second year of the IEE department. Collaborations span industry (SAFRAN) and academic institutions (SIMAP, SATIE, Ampère, LAPLACE, CEA/INES). His teaching covers electronics, heat transfer, and power electronics. Recent publications emphasize thermal optimization of power modules, solderless interconnections, and applications of phase change materials. Key trends in his work involve enhancing cooling efficiency through novel materials (metal foams, silver-diamond composites) and design strategies for electric vehicle systems.
François LE PENNEC is a Researcher in the Microwave Department at IMT Atlantique, working on the Brest campus. His academic position involves research in specialized areas of microwave engineering and wireless communications, with a focus on practical applications in challenging environments. Dr. LE PENNEC's research interests primarily center around antenna design, particularly for underwater and marine applications. His work explores the challenges of electromagnetic wave propagation in water environments, which presents significant technical hurdles due to water's attenuation properties. He has made notable contributions to underwater radio frequency communications, developing specialized antenna systems that can operate effectively in submerged conditions. Additionally, his research extends to the interaction between renewable energy infrastructure (particularly small wind turbines) and telecommunications systems, investigating how these green energy solutions can be integrated with cellular networks without causing electromagnetic interference. Analysis of Dr. LE PENNEC's publication record reveals a consistent research trajectory focused on practical engineering solutions for challenging communication environments. His work spans underwater wireless systems, electromagnetic compatibility issues with renewable energy installations, and advanced antenna design for 4G mobile technologies. The publications demonstrate a strong emphasis on experimental validation through measurements and modeling, with particular attention to real-world implementation challenges. His research bridges theoretical electromagnetic principles with practical engineering applications, showing particular expertise in solving problems related to signal propagation in non-standard media. Dr. LE PENNEC has contributed significantly to understanding the electromagnetic interactions between wind turbine installations and cellular base stations, providing valuable insights for the telecommunications industry as it seeks sustainable power solutions. His work on underwater communication systems represents an important niche within wireless communications research, addressing the growing need for reliable subsea data transmission for scientific, commercial, and defense applications.
Mohamed Bensetti is a Researcher at the Laboratory of Electrical and Electronic Engineering, Université de Paris. His primary affiliation is with the Faculty of Engineering, specializing in electromagnetic compatibility (EMC), inductive power transfer (IPT), and wireless power systems. His work bridges theoretical modeling and practical applications in energy systems and material characterization. Education & Research Focus: Expertise in neural networks for non-destructive evaluation (NDE) and harmonic source modeling Development of machine learning-based tools for low-voltage grid analysis Optimization of magnetic couplers and shielding effectiveness for electric vehicles Advances in multi-physics modeling of electric motors and inductive power systems Research Trends in Publications: His 2023-2025 work emphasizes the fusion of AI techniques with traditional electromagnetic methods. Key themes include: Neural networks for eddy current NDT and material property prediction Machine learning metamodeling of harmonic sources in LV networks Optimization of wireless power transfer systems via genetic algorithms and HGAPSO methods Design of compact, efficient magnetic couplers for dynamic inductive power transfer (DIPT) Advising & Collaborations: Collaborates extensively with academic and industrial partners on projects involving: Dynamic vehicle charging systems EMC filter optimization for automotive electronics Shielding solutions for low-frequency electromagnetic fields Labs/Teams: Leads the Electromagnetic Compatibility and Inductive Power Transfer research team at the Laboratory of Electrical and Electronic Engineering, focusing on applied electromagnetics and energy systems innovation.
Tristan Dubois is an Associate Professor at Université de Bordeaux , affiliated with the Laboratoire de l'intégration, du matériau au système (IMS Bordeaux). He works within the RELIABILITY research group, focusing on electromagnetic compatibility (EMC), electronic component immunity, and aging effects in circuits. His expertise includes near-field scan immunity methods , RF interference analysis , and reliability engineering for embedded systems. PhD in Electronics, Université Montpellier II, 2009 HDR (Habilitation à Diriger des Recherches), Université de Bordeaux, 2022 His research spans broad domains such as electromagnetic compatibility , electronic circuit reliability , and nanocomposite materials for high-frequency applications. Key subfields include conducted and radiated immunity , phase-locked loop perturbation , and modeling of aging-induced failures in voltage references and operational amplifiers. Tristan has published extensively in IEEE Transactions and Microelectronics Reliability , covering topics from microwave oscillator systems to embedded capacitor design . Recent work includes a 2024 poster on proteomic classification of triple-negative breast cancer, indicating interdisciplinary collaborations. 2022: HDR thesis on electromagnetic security of connected devices 2014: PhD thesis on electromagnetic wave impact on electronic circuits
Isabelle Bord-Majek is an Associate Professor at the Institute of Materials Integration from Material to System (IMS Bordeaux) within the University of Bordeaux . She works in the WAVES research group and is affiliated with the DEVICES, MATERIALS team. Research Interests: Her work spans materials synthesis for electronic applications, focusing on Supercritical fluid synthesis of nanomaterials Low-temperature sintering strategies Dielectric composites for embedded capacitors Reliability of wide bandgap semiconductors Electromagnetic compatibility in automotive and medical devices Publication Trends: Recent articles highlight her expertise in Photomagnetic molecular compounds Biocompatible InGa nanoparticles Supercritical fluid processing 3D electromagnetic simulations for component design Advanced dielectrics for RF and power applications Collaborations: She partners with institutions like CEA Leti , LAAS CNRS , and companies such as STMicroelectronics and Stellantis .
Jean-Michel VINASSA is a Professor at the University of Bordeaux within the Faculty of Sciences and Electrical Engineering Department . He leads research in the RELIABILITY group under the REMI and RESS teams at IMS Bordeaux, focusing on energy storage reliability for transportation applications. Institution: University of Bordeaux Research Unit: IMS Bordeaux (Institut de Mécanique et d'Ingénierie de Bordeaux) Research Group: RELIABILITY Teams: REMI (Reliability of Electronic and Mechatronic Systems), RESS (Reliability of Energy Storage Systems) His research spans battery and supercapacitor reliability engineering , particularly lithium-ion battery aging mechanisms , supercapacitor degradation modeling , and thermal management systems for electric vehicles. He specializes in impedance spectroscopy , state-of-health estimation , and accelerated aging testing methodologies. His work bridges fundamental electrochemistry with practical automotive applications, addressing critical challenges in electric vehicle power systems. Analysis of his 50+ publications (2007-2023) reveals a consistent focus on energy storage reliability , with recent work emphasizing fast-charging impacts , multi-stress aging interactions , and real-time diagnostics . His research combines experimental validation with advanced modeling techniques including fractional calculus and neural networks for degradation prediction. Key collaborators include Olivier Briat, Akram Eddahech, and Ronan German, with publications appearing in IEEE Transactions , Journal of Power Sources , and Microelectronics Reliability . His work has significant industrial relevance, particularly for electric vehicle manufacturers and energy storage developers. Professor VINASSA's research program includes patented state-of-health evaluation methods and extensive work on hybrid energy storage systems for microgrids. His team maintains strong industry partnerships with automotive and electronics companies, focusing on translating laboratory findings into real-world reliability solutions.
Higher School of Aeronautical Techniques and Automotive ConstructionFrance
Dr. Chérif Larouci is an Associate Professor and researcher at ESTACA (Higher School of Aeronautics and Space), where he has served as a teacher-researcher since 2002. Currently, he leads the Embedded Systems and Energy for Transport (S2ET) division, a position he has held since 2013. His academic career at ESTACA also included heading the Command and Systems Team from 2006 to 2013. In 2012-2013, he obtained Authorization to Supervise Research at the University of Paris-Sud 11. Dr. Larouci's educational background includes a PhD in Electrical Engineering from the National Polytechnic Institute of Grenoble (INPG) in 2002, with a thesis on "Design and optimization of static converters for power electronics; Application to sinusoidal absorption structures." Prior to that, he earned an Advanced Studies Diploma (DEA) in Electrical Engineering at INPG (1998-1999) and an Engineering Diploma from the National Polytechnic School of Algiers, specializing in Electrotechnics (1993-1998). His research focuses on power electronics, embedded systems, and energy management for transportation systems, particularly electric vehicles. Dr. Larouci's work spans multiple domains including power converter design, fault-tolerant control systems, energy management strategies, and multiphysical optimization of automotive components. His research has significant applications in electric vehicles, autonomous vehicles, more-electric aircraft, autonomous drones, and various electric transportation systems. Analysis of his recent publications reveals a strong emphasis on optimization techniques for power electronics in transportation applications. His work increasingly integrates multidisciplinary approaches, combining electrical engineering with mechanical, thermal, and control aspects. Recent trends show growing focus on sustainable transportation solutions, battery management systems, and intelligent energy management for electric mobility. His research bridges theoretical developments with practical automotive applications, often involving industry collaborations. IEEE Senior Member (elevated in March 2012) Member of the publication committee of the 3EI journal since 2004 Reviewer for numerous international journals and conferences Expert evaluator for collaborative projects (FUI, ANR, H2020, ADEME, regional projects) Dr. Larouci actively participates in research funding and collaboration through various channels. He has been involved in numerous research contracts and collaborative projects with industry partners. His leadership extends to coordinating the S2ET division, which comprises 20 teacher-researchers, 20 PhD students, and 6 technical and administrative support staff. He also contributes to strategic research directions as a member of several competitive clusters including MOVEO/Nextmove, ID4Car, and Astech. The S2ET division under Dr. Larouci's leadership serves as a comprehensive research environment focusing on embedded systems and energy solutions for transportation. The division maintains strong industry connections and participates in multiple national and European research initiatives. Current research directions emphasize electrification of transportation, autonomous vehicle systems, and sustainable mobility solutions, with particular attention to power electronics and energy management challenges.
National Institute of Applied Sciences of RouenFrance
Romain Pascaud is a researcher affiliated with the Department of Electronics, Optronics and Signal Processing (DEOS) at ISAE-SUPAERO. His work focuses on microwave/plasma interactions, with applications in power limiting devices, electrically small antennas, and electromagnetic compatibility (EMC) for spacecraft systems. Collaborations span industrial partners like Anywaves, governmental agencies (CEA, CNES, DGA), and academic institutions (ENAC, LAPLACE). Research Themes Plasma-based microwave power limiters and antennas Space-time plasma steering sources EMC between plasma thrusters and communication systems Key Technologies 3D-printed anisotropic ceramics Time reversal plasma ignition RF blackout mitigation via external fields His 15 most recent publications (2018-2025) emphasize microwave plasma modeling, dielectric resonator antennas, and EMC simulations for CubeSats. Awards include Best Paper (2019) and Best Student Presentation (2020, 2021). Former students hold engineering roles at Syntony GNSS, ArianeGroup, SAFRAN, and academia. Current openings seek graduate students and postdocs for funded projects with CNES, AID, and Région Occitanie. Students' work spans antenna miniaturization, Huygens sources, and plasma thruster interactions.
Laurent Gerbaud is a Professor at the ENS de Grenoble (Grenoble Institute of Technology) , affiliated with the G2Elab research laboratory and the MAGE team. His expertise lies in computer-aided design (CAD) of electrical systems, with a focus on electrical drives and power electronics. Research Interests: Analytical modeling, time/frequency simulation, gradient-based optimization, and CAD tool development. Teaching Activities: Computer-aided design, energy conversion, numerical methods, and optimization techniques. Research Trends across his publications highlight the application of advanced optimization methods (e.g., SQP, automatic differentiation) to complex electromagnetic and electrical systems, emphasizing electromagnetic compatibility (EMC) in aerospace, hybrid train energy management, and thermal modeling for multiphysics systems. His work bridges analytical modeling with practical implementation in renewable energy and transportation domains. Laboratory Affiliation : G2Elab (Grenoble Electrical Engineering Laboratory), located at Grenoble Cedex 1, France.
Raul DE LACERDA is an Associate Professor at the Signals and Intelligent Networks Department of CentraleSupélec and a researcher at the Signals and Systems Laboratory (L2S - CNRS). He holds degrees from the Federal University of Ceará (Brazil), Eurecom (France), and Alcatel-Lucent Bell Labs collaboration. His research focuses on advanced signal processing for wireless communications, spectrum sharing, and electromagnetic compatibility. He has contributed to projects like L-DACS2 and DME system coexistence, commercial PLC adaptation for avionics, and indoor positioning techniques. Raul has received awards for his work, including the Valuetools 2007 Best Student Paper Award and DASC 2010 Best Session Paper Award. He coordinates international partnerships through programs like the Erasmus Mundus EM-SMART2 consortium. Education: Electrical Engineering (Dipl.Ing., 2003) from UFC, M.Sc. in Teleinformatics (2005), French M.Sc. in Communication Systems (DEA), and Ph.D. in Wireless Communication (Eurecom). Research interests emphasize signal processing for wireless networks, including MIMO systems, UWB technologies, and interference mitigation. His work bridges theoretical advancements with practical applications in aerospace and avionics. Recent projects include hierarchical fingerprinting for indoor localization and 1-bit ADC MIMO data detection. Awards highlight his contributions to aeronautical communication systems and adaptive modulation. He collaborates with labs like L2S and has published extensively on coexistence systems, channel division multiple access (CDMA), and PLC adaptation for avionics. Advising and grants: No listed advisees but actively involved in Erasmus Mundus programs and international partnerships. His work is supported by collaborations with Ericsson, CNRS, and Bell Labs. Labs/Teams: Signals and Systems Laboratory (L2S), Inverse Problems Group, and Modelling and Estimation team.
Professor Anne-Laure Helbert is affiliated with the University of Paris-Saclay, where she leads the Materials Department at Polytech Paris-Sud. Her research focuses on advanced materials processing, particularly in metallurgy, severe plastic deformation (SPD) techniques, and microstructural analysis. Key areas include texture evolution in alloys, recrystallization kinetics, and additive manufacturing applications. Her work emphasizes microstructure-texture-property relationships in materials such as Mg alloys, Ni-based composites, and Ti-6Al-4V. She investigates techniques like ECAP, ARB, and HPT to achieve ultrafine-grained structures. Applications span magnetic shielding, laser cladding, and mechanical performance optimization. Recent studies highlight her contributions to understanding deformation mechanisms in Ni-W alloys, microstructural heterogeneities, and the role of bonding interfaces in accumulative roll-bonded materials. Her expertise in EBSD and DRX analysis underpins her investigations into dynamic recrystallization and grain boundary dynamics. She is actively involved in training through Polytech Paris-Sud, overseeing both initial engineering programs and apprenticeships. Her research is published in journals like Journal of Materials Science, Materials Characterization, and Acta Materialia.