Michele Casula is a CNRS DR2 researcher at the Institut de Minéralogie, de Physique des Matériaux et de Cosmochimie (IMPMC) , Sorbonne Université, Paris, France. He has led the Théorie quantique des matériaux group since 2018. His academic journey includes a CNRS CR researcher position at IMPMC (2010-2021), postdoctoral fellowships at École Polytechnique and the University of Illinois at Urbana-Champaign, and a PhD in Condensed Matter Theory from SISSA, Trieste, Italy.
Frédéric Affouard is a Professor in the Department of Physics at the Faculty of Science and Technology, University of Lille, leading the Molecular and Therapeutic Materials (MMT) team within the Materials and Transformations Unit (UMET, CNRS UMR 8207) at Scientific City, Building P5, Room 221, Villeneuve d'Ascq. His research centers on the physical state of molecular materials, glass transition mechanisms in small organic molecules (e.g., glass crystals, liquids), and optimizing biomolecule stability for pharmaceutical applications using molecular dynamics simulation and neutron scattering. His primary research interests include Molecular Materials , Pharmaceutical Materials , Glass Transition , Biomolecule Stability , Molecular Dynamics Simulation , and Neutron Scattering . He investigates the interplay between molecular structure, dynamics, and stability in amorphous pharmaceuticals, with emphasis on cocrystals, water interactions, and chirality effects to enhance drug bioavailability and shelf life. Analysis of his 15 most recent publications (2021-2025) reveals a dominant focus on pharmaceutical materials, particularly amorphous solid dispersions and cocrystals. Key trends include polymer dispersity effects on drug properties, structural/dynamical disorder in nanometric channel architectures, and water-chirality interactions in amorphous states. His work consistently bridges computational modeling (molecular dynamics) with experimental techniques (synchrotron XRD, dielectric spectroscopy). Professor Affouard has supervised 11 PhD students, including one current thesis. His doctoral advising spans: Current: Fabien PUGA MONTESDEOCA (2023) on intermolecular interactions in pharmaceutical cocrystals Recent graduates: Simon SAMSOEN (2024) on polymer matrices for drug release, Jeanne-Annick BAMA (2021) on multi-component material stability, Luisa ROCA PAIXAO (2020) on low-solubility formulations, and Frédéric NGONO MEBENGA (2017) on amorphous material simulation He coordinates the Erasmus Mundus Master BIOPHAM program and leverages UMET's resources, including the High Pressure Platform (Chevreul Institute), FireResist platform, and neutron scattering facilities, for collaborative ANR/ERC/Interreg projects in molecular material transformations.
Gwenaël Gaborit is an Associate Professor at Université Savoie-Mont-Blanc and Chief Science Officer at Kapteos SAS. His research and teaching focus on electro-optic sensors, terahertz technology, and electromagnetic field diagnostics. University: Université Savoie-Mont-Blanc Role: Associate Professor Co-roles: Chief Science Officer at Kapteos SAS Research Interests include: Optical Sensor Development Terahertz Wave Generation and Detection Real-Time Vector Electric Field Measurement Biomedical Applications in MRI Plasma Physics Diagnostics Microwave and Antenna Characterization Recent Publications highlight advancements in: THz generation mechanisms Dosimetry in high-field MRI Plasma jet electric field mapping Antenna radiation pattern analysis Lab-on-fiber sensor design Collaborations span institutions like: IMEP-LAHC Polytech Savoie CROMA Grenoble-INP International conferences (IEEE, IRMMW-THz, CEIDP)
Pablo Burset Atienza is a Visitor (Faculty) at the Department of Applied Physics and a Visiting Scholar at the Centre of Excellence in Quantum Technology (QTF) , Aalto University. His research focuses on quantum transport phenomena, superconductivity, and thermoelectricity. Education: PhD in Theoretical Condensed Matter Physics from Universidad Autónoma de Madrid (2012). His work explores the interplay between superconductivity , topological insulators , and thermoelectricity , often involving electron sources and scattering theory . Recent publications analyze quantum interference effects, Cooper pair generation, and Andreev states in unconventional superconductors. Key trends in his research include applications of graphene to quantum devices and the development of spintronic systems. He collaborates with researchers in quantum transport and condensed matter physics. Affiliations: Quantum Transport group Centre of Excellence in Quantum Technology (QTF), Aalto University
Frank De Proft is a Professor at the Vrije Universiteit Brussel , affiliated with the College of Chemistry and Department of General Chemistry. He is a leading expert in Density Functional Theory (DFT), reactivity indices , and computational chemistry , with over 500 research outputs and a Scopus h-index of 56. His work spans quantum mechanics , molecular electronics , and sustainable materials , often bridging conceptual DFT with applied computational approaches. Projects : SRP73 : Conceptual and computational design of molecular/material properties (2022-2027) IOF3020: GEAR (Sustainable materials, 2021-2025) FWOTM1065 : External pressure effects in DFT (2021-2025) Students : Supervised/mentored PhD/Master’s students include Charlotte Titeca (2021), Mats Denayer (2022), J. Eeckhoudt (FWOTM1065), and others in computational chemistry and material science. Research Outputs : Authored 437 peer-reviewed articles, 10 conference papers, and 16 chapters, with recent work on aromaticity under pressure , intrinsic bond properties , and peptide hydrogels .
Gabriel Leen serves as a Senior Research Fellow in the Department of Electronic and Computer Engineering within the Faculty of Science and Engineering at the University of Limerick. His research integrates optical engineering, acoustics, and biomedical applications to develop advanced sensing technologies for medical diagnostics and industrial processes. Dr. Leen's primary research focuses on optical fiber sensor systems for pressure, temperature, and refractive index measurements, with significant applications in urodynamic analysis, radiotherapy dosimetry, and respiratory monitoring. His pioneering work in acoustic levitation enables contactless sample manipulation for X-ray crystallography, reducing sample consumption while enabling time-resolved structural studies of biological macromolecules. This interdisciplinary approach bridges physics, engineering, and clinical medicine through innovative device fabrication and signal processing techniques. Analysis of his recent publications (2023-2025) reveals three dominant research trajectories: 1) Acoustic droplet manipulation systems for X-ray light sources enabling new crystallography methodologies; 2) Miniaturized optical fiber sensors with biocompatible designs for in vivo medical applications; and 3) Laser-based processing techniques for flexible electronics and sensor fabrication. These themes demonstrate consistent innovation in translating fundamental physical principles into practical biomedical instrumentation with clinical impact.
Dr. Karolina Górnicka is an Assistant Professor at the Institute of Nanotechnology and Materials Engineering within the Faculty of Applied Physics and Mathematics at Gdańsk University of Technology. Her research focuses on superconductivity, magnetism, and materials science, with particular expertise in rare earth compounds, intermetallics, and spinel oxides. She works in the Department of Solid State Physics and maintains an active research program with numerous publications in high-impact journals. Her research interests span superconductivity, magnetism, intermetallics, spinel oxides, Heusler compounds, and electrocatalysis. Dr. Górnicka's work often involves crystal growth, structural characterization, and measurement of physical properties of novel materials. She has particular expertise in studying rare earth compounds and their magnetic and superconducting properties, as well as developing spinel-based materials for electrocatalytic applications like oxygen evolution reaction in water splitting systems. Analysis of her recent publications reveals a strong focus on anisotropic magnetic behavior in rare earth compounds, superconductivity in various material systems including Heusler phases and Laves compounds, and the development of spinel oxide catalysts for energy applications. Her research combines experimental techniques like crystal growth, X-ray diffraction, and physical property measurements with theoretical modeling. Dr. Górnicka has secured competitive research funding through projects such as 'Superconductivity in the alkaline earth metal-based Laves phase compounds' (PRELUDIUM) and 'Superconductivity and magnetism in new binary compounds R-Rh and R-Ir (R-rare earth)' (DIAMENTOWY GRANT). She collaborates extensively with researchers including Prof. Tomasz Klimczuk and international collaborators from institutions like Princeton University. She is actively involved in the research community, with 54 publications to her name as of the latest data, and her work has been viewed over 6,000 times. Her research contributes to fundamental understanding of quantum materials while also addressing practical applications in energy technologies.
Dr. Kamil Kolincio is an Assistant Professor at the Gdańsk University of Technology , affiliated with the Institute of Nanotechnology and Materials Engineering under the Faculty of Applied Physics and Mathematics . His research focuses on the interplay between charge density waves (CDW) and magnetic ordering in rare earth-based materials, with particular emphasis on electron transport , magnetoresistance , and thermoelectric properties . Employed in Centrum Nanotechnologii A, Room 4/04 Manages two projects funded by Programy NAWA : HKcarb : Electronic and magnetic structure studies of rare earth carbides (Agreement PPN/BAT/2021/1/00016/U/00001, since 2022-02-28) KKK_P02_Pol : Novel quantum and quasi-low dimensional oxide materials (Agreement BPN/BFR/2021/1/00042/U/00001, since 2022-03-03) His recent work investigates the coexistence of CDW and magnetic states (e.g., antiferromagnetic, metamagnetic) in compounds like TmNiC2 and YNiC2, revealing field-tuned phase transitions and enhanced magnetoresistance . He also explores skyrmion lattices in centrosymmetric kagome magnets, analyzing their commensurate coupling to atomic structures. Key trends in his publications include experimental techniques such as X-ray diffraction , transport measurements , and DFT calculations , alongside theoretical frameworks involving quantum mechanical Berry phases and chiral spin fluctuations . His research has implications for novel quantum materials and low-dimensional systems. Contact: kamkolin@pg.edu.pl
Prof. Dr. Titus Mangham-Neupert is Full Professor of Theoretical Physics at the University of Zurich and co-director of its Digital Society Initiative . He leads the Theory of Quantum Matter group within the Department of Physics, Faculty of Science, and sits on several strategic boards including the Digital Strategy Board, Graduate Campus advisory board, and the Pauli Center board. Education & Career 2025–present: Full Professor, Department of Physics, University of Zurich 2021–present: Co-director, Digital Society Initiative, University of Zurich 2018–2025: Associate Professor, Department of Physics, University of Zurich 2016–2018: Assistant Professor, Department of Physics, University of Zurich 2013–2016: Postdoctoral Fellow, Princeton Center for Theoretical Science, Princeton University 2010–2013: PhD in Physics, ETH Zurich (advisors: Prof. Manfred Sigrist, Dr. Christopher Mudry) 2009–2010: Visiting Scientist, RIKEN, Japan 2007–2009: MSc in Physics, University of Zurich 2005–2007: Undergraduate studies, Dresden University of Technology Research Interests Neupert’s work straddles condensed-matter physics, quantum materials, topology, and machine learning . His group develops variational and tensor-network approaches to strongly-correlated electrons, explores fractional topological phases , and investigates kagome metals, moiré graphene, and unconventional superconductors . A growing focus is the deployment of neural-network quantum states and AI-assisted data analysis to uncover emergent quantum phenomena. Grants & Funding ERC Starting Grant “PARATOP” Swiss National Science Foundation project grants Member of the Swiss MaNEP network Scientific Awards & Honors Clarivate Highly Cited Researcher (2020-2024) Outstanding Referee, American Physical Society (2019) Klung-Wilhelmy Science Award (2019) ETH Medal for PhD thesis (2013) Swiss Physical Society Dissertation Prize (2013) Professional Service & Memberships Member, Editorial Board, Physical Review B (2020-2026) Member, Digital Strategy Board, University of Zurich Advisory boards: Graduate Campus UZH, Science Lab UZH & Science Pavilion UZH Board member, Pauli Center (UZH & ETH Zurich) Member, American Physical Society
Jaime de la Cruz Rodriguez is a Professor at the Department of Astronomy, Stockholm University since June 2025. His research focuses on solar physics , particularly chromospheric heating , polarized radiative transfer , and instrumentation for solar telescopes. He is a board member of the European Solar Physics Division and a member of the Scientific Advisory Group for the European Solar Telescope . Education & Teaching: Teaches courses such as Polarized Radiative Transfer , Astrophysical Spectra , Stellar Atmospheres , Scientific Programming in C++ , and Computational Astrophysics at Stockholm University. Has taught at international doctoral schools in Spain, USA, and Switzerland. Research Interests: His work centers on understanding the chromosphere of the Sun through spectropolarimetric observations , radiative transfer modeling , and 3D MHD simulations . Key themes include: Chromospheric heating mechanisms Magnetic reconnection and flux emergence Development of inversion techniques for Stokes profiles Instrumentation and data reduction for Fabry-Perot systems Grants & Funding: ERC Starting Grant (2017) ERC Consolidator Grant (2023) Labs & Collaborations: He works closely with the Swedish 1-m Solar Telescope (SST) and its instruments like CRISP and CHROMIS . His research involves collaboration with international teams across Europe and the US, contributing to both observational campaigns and theoretical modeling.
Tugdual LeBohec serves as an Associate Professor in the Department of Physics & Astronomy within the College of Science at the University of Utah, where he has maintained an active research and teaching position since 2010. His academic journey began with a PhD in Physics from Paris XI University in 1996, establishing the foundation for his diverse research career that spans theoretical physics, astronomy, and quantum mechanics. LeBohec's educational background includes earning his doctorate from Paris XI University in 1996, demonstrating a strong foundation in theoretical physics that has informed his subsequent research directions. His multilingual capabilities in Japanese, English, French, and Arabic have likely contributed to his international research collaborations. His research interests demonstrate a fascinating evolution from observational astronomy to theoretical physics. Initially working with the VERITAS experiment in Tucson on gamma ray astronomy and stellar interferometry, LeBohec shifted his focus to Scale Relativity theory and its applications to quantum mechanics foundations and complex systems. This theoretical work has intriguing implications for astrophysics, potentially bridging his earlier observational work with his current theoretical pursuits. His research spans multiple disciplines including high-energy physics, quantum foundations, materials science for gravitational wave detection, and mathematical physics. Analysis of his recent publications (2020-2024) reveals a researcher actively contributing to multiple fields. His work shows a progression from observational astronomy techniques to fundamental theoretical questions in physics, with notable contributions to Scale Relativity theory and its potential applications to quantum mechanics. His publications span prestigious journals including the American Journal of Physics, International Journal of Modern Physics A, and The Astrophysical Journal, demonstrating the interdisciplinary nature of his research that connects astronomy, quantum theory, and materials science. LeBohec has secured significant research funding through the National Science Foundation, including a grant for Stellar Intensity Interferometry (2009-2012) and an MRSEC SEED project (2014-2015). Most recently, he served as a Visiting Professor at Anbar University in Ramadi, Iraq in December 2024, indicating ongoing international engagement. While specific student advising information isn't provided in the available text, his teaching activities include courses in Thermal & Statistical Physics and Special Reading Topics. His research appears connected to major scientific facilities and collaborations, particularly the VERITAS observatory for gamma-ray astronomy and likely involvement with LIGO-related research on mirror coatings based on his publications about amorphous oxides and crystallization in zirconia films. These connections place his work at the intersection of theoretical physics and cutting-edge experimental techniques in both astronomy and gravitational wave detection.
Rainer Abart is a full Professor and the Dean of the Faculty of Earth Sciences, Geography and Astronomy at the University of Vienna, where he leads research at the Department of Lithospheric Research. His academic career spans over three decades with appointments at prestigious institutions including the Free University Berlin, University of Basel, and Karl-Franzens-University Graz. Abart's research focuses on petrology, mineral physics, thermodynamics, and geochemistry. His work particularly emphasizes metamorphic, magmatic, and experimental petrology, with significant contributions to understanding diffusion and diffusive phase transformations in minerals, phase equilibria, irreversible thermodynamics, mineral reaction kinetics, and fluid-rock interactions. His research bridges theoretical models with experimental approaches to unravel complex geological processes. His recent publications demonstrate a consistent focus on mineral reactions, diffusion processes, and microstructural evolution in geological materials. A significant portion of his work investigates alkali feldspar systems, examining diffusion mechanisms, phase transformations, and crystal structures using advanced techniques like atom probe tomography and neural network modeling. He also conducts important research on mantle xenoliths, mineral inclusions in garnet, and the petrogenesis of various rock types. Elected full member of the Austrian Academy of Sciences (2022) Elected corresponding member of the Austrian Academy of Sciences (2013) FWF grant I 4404-N: Diffusion-diffusive phase transformations in alkali feldspar (2020-2023) FWF grant I 4580-N: Moldanubian deep crustal metasomatism (2021-2023) FWF grant I3998-N29: Fe-Ti oxide inclusions and magnetism of oceanic gabbro (2019-2023) Felix-Machatschki award of the Austrian Mineralogical Association Abart has secured numerous research grants from major funding agencies including FWF, DFG, and SNF. He has served in significant administrative roles including Head of Department of Lithospheric Research (2010-2022), Deputy Director of Earth Sciences studies program, and Speaker of the DOGMA doctoral school. His research collaborations span internationally with partners in Germany, Slovenia, Russia, and other countries. His laboratory work combines experimental petrology with advanced analytical techniques to study mineral reactions and transformations.
Professor Steven Jamison is a faculty member at the Department of Physics, Lancaster University , leading research in ultrafast and nonlinear optics applied to advanced particle accelerators. His work focuses on terahertz (THz) pulse generation and their use in direct particle beam acceleration , collaborating with institutions like Manchester Physics, Lancaster Engineering, and the Accelerator Science and Technology Centre at STFC Daresbury National Laboratory . As a member of the Cockcroft Institute for Particle Accelerator Science and Technology , he contributes to next-generation accelerator development for applications in particle physics, ultrafast electron diffraction, and condensed matter science. Current PhD studentship opportunities emphasize experimental and theoretical studies at the intersection of femtosecond lasers, nonlinear optics, and relativistic electromagnetism. Affiliation: Lancaster University, Cockcroft Institute, STFC Daresbury Research Themes: THz-driven particle acceleration, plasma wakefield acceleration, dielectric-laser acceleration, femtosecond beam diagnostics Research Trends: Professor Jamison’s recent publications highlight innovations in THz pulse generation via nonlinear dielectric processes, corrugated waveguide design for matched phase/group velocities, and subrelativistic electron beam acceleration . His work bridges ultrafast optics and accelerator physics , with applications in high-gradient acceleration and beam diagnostics . Advising: He supervises PhD students Ryan McGuigan and Stuart O'Neill , focusing on laser-THz interactions with electron beams and longitudinal beam compression. Projects: Current grants include STFC funding for staff time , Cockcroft Institute core grants , and collaborative projects on THz spintronics and electron injector cryogenics .
Professor Simon Gardiner is a faculty member in the Department of Physics at Durham University, serving as Deputy Executive Dean (Education) in the Faculty of Science. He has held this position since 2005, following postdoctoral work in Potsdam, Hannover, Oxford, and JILA (Colorado). Durham University Department of Physics (2005–present) Deputy Executive Dean (Education) in Faculty of Science Education: Originally from Hamilton, New Zealand, Gardiner studied Biology and Chemistry at the University of Waikato before shifting to Mathematics and Theoretical Physics. He completed his doctoral studies in theoretical physics at the Leopold-Franzens University of Innsbruck, Austria. Gardiner’s research focuses on theoretical atomic physics , cold-atom physics , and quantum nonlinear dynamics . His work includes: Quantum dynamics of bright matter-wave solitons Quantum resonance phenomena in laser-pulsed atomic systems Cooperative effects in atomic arrays Spin-orbit coupling in correlated atom systems Atomtronic circuitry Development of number-conserving models for Bose-Einstein condensates Recent publications (2019–2025) demonstrate his ongoing contributions to: Quantum soliton interferometry Photon correlations in thermal atomic ensembles High-energy physics simulation tools Machine learning applications in physics Atomic array optical properties Nonlinear quantum dynamics
Dr. Cameron Scott serves as a Research Fellow in the Department of Physics, conducting advanced research on complex functional materials with emphasis on perovskite-based systems. His work bridges experimental and theoretical approaches to uncover fundamental structure-property relationships in quantum materials. Research Interests: His expertise spans Condensed Matter Physics, Materials Science, and Solid State Chemistry, focusing on polar instabilities, magnetoelectric coupling mechanisms, and anion ordering effects in transition metal oxides. Current investigations target symmetry-driven phenomena in orthorhombic perovskites and hydroxyfluoride diaspores for next-generation electronic and spintronic applications. Publication Trends: Analysis of his 2024 publications reveals concentrated exploration of symmetry principles in perovskite crystallography, with cross-cutting themes in ferroelectric phase transitions and magnetic behavior modulation. Collaborative work involving neutron diffraction, computational modeling, and property characterization demonstrates methodological diversity within condensed matter research. Scientific Awards: No scientific awards documented in source materials Advising and Grants: The provided text contains no information regarding graduate student supervision, research grants, or funding sources. His role appears focused on independent research within collaborative frameworks. Laboratory Context: While specific laboratory affiliations remain unspecified, his publication co-authors suggest engagement with multi-institutional teams specializing in advanced diffraction techniques and materials synthesis.
