Max Wolff is a Professor in Materials Physics at Uppsala University , Sweden. His research applies neutron scattering to investigate structure-dynamics-property relationships in soft matter , magnetic materials , and hydrogen storage systems . He actively develops advanced neutron instrumentation and ion beam analysis techniques. Key Research Areas: Soft Matter, Magnetism, Hydrogen in Metals, Scattering Techniques Technical Expertise: Polarized Neutron Scattering, Grazing Incidence Methods, Quasielastic Neutron Scattering Publications (2025-2023) reveal focus on hydrogen diffusion in nanoscale metals, photochromic material engineering , and interfacial self-assembly of magnetic colloids. Notable work includes strain effects in vanadium hydrides and neutron instrument optimization. Collaborations span institutions like Ruhr-University Bochum and Institute Laue-Langevin. He has contributed to ion beam analysis tool development (SIGMA setup) and neutron optics innovations (SuperADAM reflectometer).
Dr. An-Chang Shi is a Professor of Physics & Astronomy at McMaster University, specializing in condensed matter physics with a focus on soft matter systems. His research spans theoretical modeling of polymeric materials, particularly block copolymers and their self-assembly behavior. Dr. Shi earned his B.Sc. in physics from Fudan University and completed his Ph.D. in physics at the University of Illinois at Urbana-Champaign in 1988. He conducted postdoctoral research at McMaster University from 1988 to 1992 before joining Xerox Research Centre of Canada. In 1999, he returned to McMaster University as an Associate Professor and was promoted to Professor. His research interests center on the development of theoretical models for soft matter systems, with particular emphasis on block copolymer self-assembly , phase behavior of self-assembling macromolecules , and kinetic pathways of transitions between stable and metastable states . His work bridges fundamental theoretical physics with practical applications in nanomaterials design. Analysis of his recent publications (2023-2025) reveals a strong focus on complex phase behavior in block copolymer systems, particularly quasicrystalline structures, Frank-Kasper phases, and the effects of molecular architecture and dispersity on self-assembly. His research increasingly incorporates advanced theoretical approaches to understand and predict nanostructure formation in soft materials. Dr. Shi has received significant recognition for his contributions to the field: Premier's Research Excellent Award (2000) Fellow of American Physical Society (2010) His scholarly activity demonstrates extensive collaboration across the international soft matter research community, with over 135 publications in the last decade. While specific grant information isn't detailed in the provided text, his sustained research output suggests successful funding from major research agencies. Dr. Shi's theoretical work provides fundamental insights for designing novel polymeric materials with tailored nanostructures, contributing significantly to the advancement of soft condensed matter physics and materials science.
Robert Leheny is a **Professor and Henry A. Rowland Chair of Physics and Astronomy** at Johns Hopkins University, affiliated with the Krieger School of Arts & Sciences. He earned his PhD from the University of Chicago and focuses on experimental condensed matter physics, with emphasis on disordered and soft materials. His research explores how disorder and non-equilibrium conditions influence material properties, particularly in colloidal gels, liquid crystals, and glass-forming systems. His work integrates advanced techniques like X-ray photon correlation spectroscopy (XPCS) and rheology to study microscopic dynamics and macroscopic behavior. Key themes include structural memory in soft glasses, yielding transitions in amorphous materials, and topological defects in liquid crystals. Recent studies investigate interfacial remodeling by bacteria and nanostructure dynamics in responsive materials. Leheny has published extensively on rheological memory effects, colloidal gelation, and active nematic systems. His research bridges fundamental physics with engineering applications, such as designing tunable liquid crystal architectures. Despite no explicitly listed awards, his contributions are reflected in high-impact publications and leadership in experimental condensed matter physics.
Professor Martin Oettel holds a faculty position at the University of Tübingen within the Department of Physics, Faculty of Science, where he leads the Computational Nanoscience research group at the Institute of Applied Physics. His academic address is at Auf der Morgenstelle 10, 72076 Tübingen, Germany. Since 2013, he has co-organized the annual Density Functional Days workshops alongside Joseph Brader (University of Fribourg) and Roland Roth (University of Tübingen), establishing an important forum for researchers in classical density functional theory. Professor Oettel's research focuses on computational soft matter physics , with particular expertise in density functional theory applications to colloidal systems, thin film growth, and phase transitions. His work spans both fundamental theoretical developments and applied materials science problems, especially in organic electronics and nanoscale systems. Key areas include the study of hard sphere systems, monolayers of anisotropic particles on substrates, phase diagrams for complex colloidal mixtures, and the development of dynamic density functional theory approaches. His research often involves sophisticated computational modeling combined with close collaboration with experimental groups, such as Prof. Frank Schreiber's experimental group at Tübingen. His publication record demonstrates consistent contributions to the field since 2006, with recent work (2016-2018) focusing on thin film growth with anisotropic particles, monolayer systems of hard rods, phase transitions in colloidal mixtures, and advanced diffusion phenomena in confined systems. The research shows a clear trajectory from fundamental theoretical developments toward applications in materials science and nanotechnology. Professor Oettel actively supervises doctoral students, as evidenced by the 2023 job posting for a PhD position in modeling thin film growth within a DAAD-CAPES project involving collaboration with Prof. Frank Schreiber (Tübingen) and Prof. Fabio Reis (Federal Fluminense University, Brazil). This position required work on both simulations and dynamic density functional theory, with an extended research stay in Brazil. He maintains the Computational Soft Matter and Nano-Science Chair (Lehrstuhl für Computational Soft Matter and Nano-Science) at the University of Tübingen, where his research group investigates the physics of soft condensed matter systems through computational approaches. The group's work bridges theoretical physics with practical applications in materials science, particularly in organic electronics and nanoscale systems.
Professor Kislon Voitchovsky is the Head of Condensed Matter Physics and a Professor in the Department of Physics at Durham University, where he is also affiliated with the Biophysical Sciences Institute. His research bridges condensed matter physics, biophysics, and nanotechnology, focusing on nanoscale phenomena at biological and synthetic interfaces. Research Interests: Voitchovsky's work explores the molecular-scale behavior of complex systems, including lipid membranes, nanoparticle interactions, ionic dynamics at solid-liquid interfaces, and advanced atomic force microscopy (AFM) techniques. His group studies hydration landscapes, nanomechanical properties, and electrokinetic processes to understand fundamental interfacial science with applications in biomedicine, energy, and materials design. Recent Publications: His 2023-2025 publications emphasize nanoscale mapping of hydration, ionic ordering, lipid membrane mechanics, and nanoparticle-biomembrane interactions. These works demonstrate consistent innovation in high-resolution AFM methodologies and molecular dynamics simulations to probe interfacial phenomena in biological and environmental contexts. Supervision: He currently mentors five PhD students: Amal Alamri, Ke Sun, Michael Rennick, Ruth McTiernan, and Thomas Williamson. Labs & Teams: As Head of Condensed Matter Physics, Voitchovsky leads a research group specializing in nanoscale characterization, leveraging AFM and computational tools to study soft matter and biological interfaces.
Jörg G. Werner is Assistant Professor of Mechanical Engineering and Materials Science & Engineering at Boston University, where he directs the Mesostructured Materials and Devices (MeMaD) Laboratory. His research develops novel fabrication methods for functional nanostructured materials with applications in energy storage, coatings, and sustainability technologies. Education includes: Ph.D. from Cornell University (2015) Research focuses on: Bottom-up assembly of nano/micro-structured materials Block copolymer self-assembly for ordered mesostructures Electrodeposition of functional polymer coatings Phase separation strategies for architected electrodes Design of mesostructured energy storage systems Recent work emphasizes electrodeposited conformal coatings, nanostructured organogels, and block copolymer-derived functional materials. Key trends include innovation in energy storage architectures and sustainable material design. Awards and honors: DARPA Young Faculty Award (2023) emc2 Young Investigator Award (2013) Howard Neal Wachter Memorial Prize (2014) Leads the MeMaD Lab with focus on interdisciplinary approaches to materials design through controlled self-assembly processes.
Jasmin Kennard serves as an Instructor in the Chemical, Biological, and Environmental Engineering department at Oregon State University's College of Engineering. A recent Cornell University Ph.D. graduate (2024), she holds advanced degrees in Chemical Engineering from both Cornell (M.S., 2021) and Oregon State University (B.S., 2018). Her educational credentials include: Ph.D. in Chemical Engineering, Cornell University, 2024 M.S. in Chemical Engineering, Cornell University, 2021 B.S. in Chemical Engineering, Oregon State University, 2018 Dr. Kennard specializes in high-throughput computational modeling of mesoscale self-assembly using chemistry-agnostic frameworks, with particular expertise in multicomponent systems, ordered assemblies, and solid solution formations. Her research integrates material science software development with policy analysis for microelectronic supply chain security, demonstrating cross-disciplinary applications from nanoscale physics to national security infrastructure. Analysis of her recent publications reveals a concentrated research trajectory in colloidal self-assembly phenomena, especially examining crystal formation in binary particle systems with size variations. Her work consistently bridges computational chemical engineering with soft matter physics, focusing on phase behavior, crystallographic structures, and demixing processes in complex colloidal compounds. Professional experience includes RAND Corporation's Homeland Security Operational Analysis Center where she assessed microelectronic supply chain vulnerabilities, and Schrödinger, Inc.'s Polymers team developing solvation pathway algorithms for Material Science Maestro software. Current academic responsibilities center on chemical engineering instruction within Oregon State's engineering college.
Dr. Irene Morales Casero is a researcher at the Institute of Inorganic Chemistry at Leibniz University Hannover, leading the AG Magnetic Functional Materials group. Her work focuses on magnetic materials, nanotechnology, and their applications in biomedical and materials science. She is also part of the Inorganic Molecular and Materials Chemistry Group . Her research interests include the synthesis and characterization of magnetic nanoparticles, hydrogels, cryogels, and their use in drug delivery, energy storage, and biosensing. Recent studies explore stimuli-responsive nanocarriers for targeted drug delivery, plasmonic metamaterials, and magnetic hyperthermia applications. Publications highlight contributions to magnetic nanoparticle-based platforms, functional nanoparticle assemblies, and material design for energy and biomedical applications. Her work bridges fundamental material science with applied technologies, emphasizing interdisciplinary approaches. Dr. Morales collaborates widely, with postdoctoral researchers and interdisciplinary teams. While no formal awards are listed, her extensive publication record reflects significant contributions to magnetic materials research. No student advisees are explicitly mentioned, but her groups involve postdoctoral and technical staff.
Torsten Brezesinski is a Group Leader and Laboratory Manager at the KIT/BASF Joint Laboratory for Batteries and Electrochemistry (BELLA), part of the Institute of Nanotechnology at Karlsruhe Institute of Technology (KIT). He leads research on next-generation battery materials and mesostructured metal oxide thin films, with a strong focus on structure-property relationships and energy storage applications. Education: Ph.D. (Dr. rer. nat.), Max Planck Institute of Colloids and Interfaces / University of Potsdam, 2005 (with Prof. Markus Antonietti) His research interests center on advanced materials for electrochemical energy storage, including nanostructured electrodes, thin films, and mesoporous metal oxides. His work combines synthesis, characterization, and performance evaluation to develop high-efficiency battery components. A major focus is on polymer-templated mesostructured materials with optimized ion transport and interfacial properties. The selected publications highlight a consistent trajectory in materials for energy storage, particularly in lithium-ion and solid-state batteries, thin films, and nanostructured electrodes. The research spans fundamental synthesis, electrochemical behavior, and advanced characterization, with increasing emphasis on interfacial phenomena and degradation mechanisms in recent years. Scientific Awards: Dieter Rampacher Prize (Max Planck Society), 2006 Sonderpreis für Nachwuchswissenschaftler/innen in Brandenburg und Berlin, 2006 Dr.-Herbert-Stolzenberg-Award, 2009 ADUC Jahrespreis (German Chemical Society), 2010 Reviewer Excellence Award (Chemistry of Materials), 2018 Outstanding Reviewer for Chemical Communications, 2019 and 2020 Editor of Distinction Award (Springer Nature), 2025 Brezesinski has advised numerous researchers and students through his leadership roles at KIT and previous institutions. His group has secured significant research output, including over 240 peer-reviewed papers and more than 30 patents. He has also served on editorial boards of major journals such as Materials Futures , Scientific Reports , and Batteries , reflecting his influence in the materials science community. He leads the BELLA laboratory, a collaborative research unit between KIT and BASF, focused on advancing battery technologies. His team works on innovative materials synthesis, thin film fabrication, and electrochemical testing, contributing to next-generation energy storage solutions.
Christine Papadakis is a Professor of Experimental Physics - Soft Matter at the TUM School of Natural Sciences , Technical University of Munich. Her research focuses on polymer physics, block copolymers, responsive polymers, and thin films, with applications in medical materials. She employs advanced scattering techniques (light, X-rays, neutrons) to study self-assembly, phase behavior, and kinetics under environmental changes. Her recent work highlights include Comparative swelling dynamics of thermoresponsive thin films under water vapor exposure Pressure-dependent micellar aggregation in diblock copolymers pH and temperature-responsive micelle formation Photo-modulation of azo dye-functionalized polymers Her publications align with UN Sustainable Development Goals through innovations in polymer sustainability and medical applications. She serves as Editor-in-Chief of Colloid & Polymer Science since 2015.
Kelly Powderly is an Assistant Professor of Chemistry at Washington University in St. Louis, leading a research group focused on discovering novel quantum materials through innovative synthesis approaches. Her laboratory develops alternative synthetic pathways for extended solids with magnetic, electronic, and topological properties relevant to quantum information science. Research combines high-pressure techniques, solution-phase synthesis, and advanced characterization methods. Current research directions include: designing 2D spin-nets from molecular precursors, studying diffusion-suppressed routes to intermetallics, and high-pressure metathesis for novel noble-gas solids. The group employs techniques including in situ X-ray diffraction, diamond anvil cells, and variable-temperature property measurements. Powderly received significant recognition including the Beckman-Brown Postdoctoral Fellowship (2023), NSF Graduate Fellowship (2017), and Princeton's Pickering Teaching Award (2020). She currently supervises PhD students Jayna Wallinger and Yarielis Lopez, along with undergraduate researchers. Recent publications demonstrate expertise in magnetic materials and metastable phase synthesis.
Giorgio Pastore is an Associate Professor in the Department of Physics at the University of Trieste. He serves as a member of the Department's Board and Boards of Studies for both SM20 and SM23 Physics programs. His research focuses on theoretical and computational aspects of condensed matter physics, with particular expertise in liquid state physics, colloids, and glass transition phenomena. Pastore's research interests span Condensed Matter Physics, Theoretical Physics, Computational Physics, Liquid State Physics, Colloids, and Glass Transition. His work involves theoretical and computational research on liquid states and disordered systems, with special attention to colloids. Recent projects include extension of classical liquid theory approaches (RHNC-type integral equations) to colloidal systems with short-range and anisotropic interactions, studies of self-assembling colloids including Janus systems, ab-initio (DFT) studies of molten salts and ionic liquids, and investigations of the glass transition using Random First Order Transition theory. His publication record shows significant contributions to understanding the physics of liquids and colloids, with recent work focusing on liquid-liquid phase transitions in supercooled water, arrested states in colloidal fluids, electronic structure of liquids, and theoretical aspects of the glass transition. His research employs a combination of analytical methods, integral equation theory, numerical simulations, and computational techniques. Pastore is actively involved in physics education, having contributed to professional development programs for physics teachers and interdisciplinary educational initiatives. His work bridges theoretical physics with practical educational applications, demonstrating commitment to both research excellence and pedagogical innovation. He maintains active research collaborations with colleagues from various institutions including A. Giacometti from Venice, F. Lado from NC State University, and F. Sciortino from Rome, as well as international researchers in Montpellier and Paris.
Radoslaw Kolkowski serves as an Academy Research Fellow within the Department of Applied Physics at Aalto University, Finland, focusing on cutting-edge theoretical and experimental photonics research. His work bridges fundamental optical phenomena with nanoscale device applications, emphasizing light-matter interactions in engineered structures. His research spans Photonics , Nanophotonics , Quantum Optics , and Plasmonics , with specific expertise in bound states in the continuum (BICs), metasurfaces, and quantum dot-nanostructure hybrids. He investigates symmetry-breaking effects, topological robustness, and nonlinear optical processes to enhance photonic device performance, particularly for ultra-compact integrated systems and high-efficiency light sources. Analysis of his 2024-2025 publications reveals a cohesive research trajectory centered on manipulating nonradiating states and collective resonances. Key themes include topological protection of photonic states in broken-symmetry systems, enhancement of nonlinear absorption in quantum materials, and temporal control of metasurface resonances—driving innovations toward practical applications in photonic chips and nanolasers. His collaborative network includes prominent researchers like Andriy Shevchenko and Huayu Bai, with publications spanning high-impact journals including Science Advances , ACS Photonics , and Nanophotonics . While grant details and student supervision aren't documented in the provided text, his prolific output indicates active leadership in experimental nanophotonics projects.
Dr. Aidan Doyle is a Reader in Industrial Chemistry at Manchester Metropolitan University, specializing in nanoporous materials and heterogeneous catalysis. His research focuses on emissions control technologies, low carbon fuels, and additive manufacturing applications in chemical engineering. Expertise in zeolite synthesis from unconventional sources Active researcher in methane oxidation and CO2 adsorption Contributor to aircraft cabin air quality studies Academic Background PhD in Chemistry (University of Limerick, 2000) BSc Industrial Chemistry (University of Limerick, 1995) Diploma in Chemistry (Waterford Institute of Technology, 1993) Research Highlights demonstrate his work across multiple disciplines including environmental engineering, materials science, and chemical processing. Recent publications focus on 3D-printed catalytic substrates, hybrid photocatalysts, and industrial-scale pollutant removal systems. Scientific Contributions include significant findings in: CO2 capture using waste-derived composites Methane abatement in dual-fuel engines Multi-metal adsorption from aqueous systems Aircraft cabin chemical contamination studies Awards and Distinctions include the Max-Planck-Society Research Fellowship, multiple university-level teaching and research accolades, and active roles in professional associations like the Royal Society of Chemistry. Professional Service involves external examiner duties at major universities and editorial review for funding bodies including EPSRC and RSC.
Dr. Qi Lu is an Associate Professor in the Department of Physics within the Division of Physics, Engineering, Mathematics, and Computer Science at Delaware State University. He holds a Ph.D. in Physics from Clemson University (2006), an M.S. in Physics from Clemson University (2002), and a B.S. in Applied Physics from Shanghai Jiao Tong University (1998). His research focuses on nanoparticle interactions with lipid membranes, optical imaging applications in biomedicine, and the effects of music tuning on brainwaves via EEG analysis. He has co-authored over 15 publications in peer-reviewed journals and contributed to multimodal deep learning and quantum confinement materials design projects. Dr. Lu's expertise spans imaging optics, machine learning, and grant writing. He has secured significant funding including a $431,935 DoD grant (2023-2025) as Co-PI for neuro-pain research and a $799,058 NSF grant (2021-2024) as Co-lead for soft matter and quantum design research. His work bridges nanotechnology with biological systems, particularly exploring how nanoparticles influence membrane structures and potential medical applications. Grants: DoD: Multimodal Deep-Learning for NeuroPain ($431,935, 2023-2025) NSF: SMaRT QD Materials Design ($799,058, 2021-2024) Labs/Teams: Collaborates with the Center of Excellence for Emerging Technologies and the Advanced Quantum Sensing Center at DSU.
