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Dmitry PushinView profile

Associate Professor

• Neutron Physics
• Quantum Information Science
• Condensed Matter Physics
• +4 more

Dmitry Pushin is an Associate Professor at the University of Waterloo and a Faculty member of the Institute for Quantum Computing (IQC). He holds a PhD in Physics from MIT (2006), and prior degrees from Moscow Institute of Physics and Technology (BSc 1995, MSc 1997). His research focuses on advancing neutron interferometry to address fundamental physics questions, including quantum information science, condensed matter physics, and dark energy studies. He explores applications like magnetic material characterization and spintronics development, with recent work on chameleon scalar field constraints via neutron experiments. Teaching includes courses such as MNS 321 (Electrical/Optical Properties of Materials), MNS 410 (Special Topics in Solid-State Materials), and graduate courses in Quantum Information Processing (QIC 890). His experimental work leverages neutron optics to study quantum coherence effects at macroscopic scales, with contributions to structured neutron waves and precision measurements. Key research areas include quantum information processing, magnetic materials, and fundamental physics inquiries like Born’s Rule verification. His team pioneered methods for neutron orbital angular momentum (OAM) generation and applied interferometry to study novel materials. Recent advancements include high-precision silicon interferometer fabrication and PROSPECT experiment contributions in antineutrino physics. Notable collaborations involve the PROSPECT reactor antineutrino experiment, focusing on short-baseline oscillations and dark matter limits. He also explores human perception of structured light phenomena, linking quantum optics to vision science.

• Biocolloids
• Neutron Scattering
• Soft Matter Physics
• +5 more

Marité Cárdenas is an Ikerbasque Research Professor at the Biofisika Institute, a joint research center of the Spanish National Research Council (CSIC) and the University of the Basque Country (EHU), where she leads the Biocolloids and Neutron Scattering Laboratory. Her work bridges physical chemistry, biophysics, and materials science with a focus on interfacial systems. Research Interests: Dr. Cárdenas specializes in the study of biocolloids, soft matter, and biomaterials using neutron scattering and surface-sensitive techniques. Her research explores molecular interactions at interfaces, particularly relevant to biological and medical applications. This includes protein adsorption, lipid membranes, and colloidal stability in physiological environments. Her career includes research appointments at Lund University (Sweden), Malmö University, the University of Copenhagen (Denmark), and Nanyang Technological University (Singapore), reflecting a strong international profile. Dr. Cárdenas earned her PhD in Physical Chemistry from Lund University in 2005. She has built a research program centered on advanced experimental methods to probe nano- and micro-scale phenomena in complex biological fluids and materials. Scientific Affiliation and Recognition: Ikerbasque Research Professor, Ikerbasque Foundation, Basque Country Group Leader, Biocolloids and Neutron Scattering Laboratory, Biofisika Institute (CSIC, EHU) ORCID: 0000-0003-0392-3540 Advising and Research Leadership: As a group leader, Dr. Cárdenas supervises research projects and likely mentors PhD and postdoctoral researchers, though specific advisees are not listed. Her laboratory leverages neutron scattering facilities and interfacial analysis tools, suggesting collaborations with large-scale research infrastructures. Laboratory and Research Environment: The Biocolloids and Neutron Scattering Laboratory at the Biofisika Institute is located in the Science Park of the University of the Basque Country in Leioa, Spain. The lab focuses on experimental characterization of soft and biological materials using neutron reflectometry and related techniques.

Max WolffView profile

Professor

• Soft Matter
• Magnetism
• Hydrogen in Metals
• +7 more

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).

• Computational Physics
• Condensed Matter Physics
• Density Functional Theory
• +6 more

Professor Stewart Clark is a Professor in the Department of Physics at Durham University, where he serves as Head of the Condensed Matter Section. His academic career spans several decades with numerous publications in computational physics and materials science. He teaches Level 1: Modern Physics courses at the university and maintains active research collaborations across multiple institutions. Professor Clark's research focuses on computational approaches to understanding materials at the atomic level. His work primarily involves first-principles calculations and computer simulations of solid state, liquid, and molecular systems. He has made significant contributions to density functional perturbation theory , structural and vibrational properties calculations, and the development of techniques for excited electronic states . His research leverages high performance computing for large-scale simulations of complex materials systems. Analysis of Professor Clark's recent publications reveals a strong focus on advanced materials research in condensed matter physics. His work frequently employs computational methods to investigate electronic structures , magnetic properties , and phase transitions in quantum materials, perovskites, and two-dimensional systems. There's particular emphasis on materials behavior under extreme conditions such as high pressure, with applications spanning electronics, energy storage, and quantum technologies. As Head of the Condensed Matter Section, Professor Clark oversees research activities and likely mentors junior faculty and research staff. His extensive publication record spanning multiple decades suggests successful acquisition of research funding from various sources to support his computational physics research program. His work bridges theoretical physics and materials science, contributing to fundamental understanding of material properties with potential technological applications. Professor Clark's research likely involves computational laboratories with access to high-performance computing resources. His work demonstrates strong interdisciplinary connections between physics, chemistry, and materials science, with collaborations spanning multiple institutions as evidenced by his co-authored publications.

• Physical Chemistry
• Colloidal Systems
• Polymer Science
• +5 more

Dr. Alison Paul serves as Reader in Physical Chemistry and Innovation within the School of Chemistry at Cardiff University. She has established a multidisciplinary research program bridging physical chemistry, materials science, and biomedical applications with particular expertise in colloidal systems and polymer science. Her work demonstrates strong industry connections through the Cardiff University Commercial Advisory Panel which she chairs. Her research interests focus on formulation in colloidal systems, physicochemical characterization of macromolecules in solution, and scattering methods to determine structures at small length scales. She investigates relationships between molecular structure, solution conformation, and functionality of novel polymers, with applications in drug delivery, structural materials, and degradable plastics. Her work integrates molecular dynamics with experimental data to advance understanding of complex systems. Analysis of her recent publications reveals a strong trend toward biomedical applications of polymer science, particularly in drug delivery systems for cancer therapy and anesthesia. Her work increasingly incorporates sustainable chemistry principles, as evidenced by research on chemically recyclable polymers and environmentally friendly surfactants. The interdisciplinary nature of her research is reflected in collaborations spanning chemistry, materials science, civil engineering, and medical fields. Dr. Paul actively supervises postgraduate students, with Taylor Young currently listed as her supervisee. She serves on important institutional committees including as co-chair of the Cardiff Materials Research Network and chair of the Cardiff University Commercial Advisory Panel, demonstrating her leadership within the university community. Her teaching portfolio includes Year 2 Physical Chemistry (focusing on thermodynamics of colloidal systems), Year 2 Medicinal Chemistry, laboratory classes for Years 2-3, and Advanced Materials for Year 4 and postgraduate students. Her pedagogical approach emphasizes connecting fundamental chemical principles to real-world applications students encounter daily.

• Density Functional Theory
• Van der Waals Interactions
• Molecular Binding
• +4 more

Per Hyldgaard is a Professor at the Quantum Component Physics department of Chalmers University of Technology . His research focuses on developing and applying van der Waals density functionals (vdW-DF) to study molecular binding, nanomaterials, and condensed matter systems. Key areas include nonlocal correlation effects, electronic structure analysis, and material properties under extreme conditions. Research Interests: Hybrids of van der Waals functionals, quantum materials, adsorption mechanisms, and computational materials science. His work bridges theoretical frameworks with experimental validation, addressing challenges in predicting CO₂ adsorption, metallic surface interactions, and polymeric systems. Recent Projects: 2019–2022: VR-funded study on charge transfer in soft materials. 2015–2018: Consistent vdW-DF studies for molecular systems. 2014–2019: High-speed graphene-based electronics collaboration. Publications: Over 100 peer-reviewed articles, including foundational work on vdW-DF methods and applications in nanotubes, layered materials, and catalytic systems. Recent trends emphasize hybrid functional optimization and energy scaling laws in nanostructures. Grants & Teams: Collaborations with EU and SSF on bio-inspired molecular networks and high-speed electronics. Active in developing libvdwxc , a software library for vdW-DF functionals.

John BulavaView profile

Professor

• Theoretical Physics
• Quantum Chromodynamics
• Hadron Physics
• +3 more

Prof. Dr. John Bulava is a Professor of Theoretical Hadron Physics at Ruhr University Bochum, affiliated with the Faculty of Physics and Astronomy. His research focuses on computer simulations of the strong nuclear force using lattice Quantum Chromodynamics (QCD) to study hadron properties and interactions, particularly hyperon scattering processes relevant to neutron stars. Prof. Bulava holds a B.Sc. in Physics and Mathematics from The George Washington University, an M.Sc. from Carnegie Mellon University, and a Ph.D. in Nuclear and Particle Physics from Carnegie Mellon University under Prof. Colin Morningstar. His research explores the dynamics of quarks within protons and neutrons, with special attention to how changes in fundamental constants like quark masses affect physical phenomena. Computational approaches form the cornerstone of his investigations into quantum field theories. Prof. Bulava's recent publications demonstrate consistent focus on resonance states and scattering processes in particle physics, employing lattice QCD methodologies. Key themes include baryon/meson resonances, finite-volume spectral analysis, and coupled-channel scattering studies. He has held positions at DESY (Germany), CERN (Switzerland), Trinity College Dublin (Ireland), and University of Southern Denmark before joining Ruhr University Bochum in 2023.

• Computational Materials Science
• Defect Properties
• Mechanical Behavior of Materials
• +3 more

Dallas Trinkle is the Ivan Racheff Professor and Associate Head of the Department of Materials Science and Engineering at the University of Illinois, Urbana-Champaign. He holds a Ph.D. in Physics from Ohio State University (2003) and joined UIUC's faculty in 2006 after postdoctoral work at the Air Force Research Laboratory. Affiliations: Willett Faculty Scholar, NCSA Faculty Fellow, Center for Advanced Study Associate. Research Focus: Computational materials science, including defect properties (dislocations, point defects), mechanical behavior at atomic scales, and diffusion mechanisms using density-functional theory and machine learning. Key Achievements: NSF CAREER Award (2009), TMS Brimacombe Medal (2019), and over 150 peer-reviewed publications. His research group develops atomistic methods to study material defects and their impact on mechanical/thermal properties. Projects include magnesium alloy strengthening, hydrogen diffusion in palladium, and oxygen diffusion in titanium. They also create open-source computational tools like the magnesium solute database. Teaching: Courses on atomic-scale simulations, plasticity, and computational materials engineering (MSE 485, MSE 584, CSE 498 DM). Current Group:** Includes 7 Ph.D. students and a research scientist. Former advisees hold roles at institutions like MIT, Lawrence Berkeley Lab, and industry leaders such as MathWorks and General Motors.

• Radio Astronomy
• Astrophysics
• Pulsar Studies
• +3 more

Sam McSweeney is a Researcher at Curtin University's School of Electrical Engineering, Computer and Mathematical Sciences (EECMS), part of the Faculty of Science and Engineering. His work focuses on pulsar astrophysics, subpulse drifting phenomena, and radio transient detection using instruments like the Murchison Widefield Array (MWA). Key research areas include magnetar-like radio transients, nulling pulsars, and multiwavelength studies of neutron stars. He has contributed to major surveys like the SMART pulsar survey and developed advanced data processing pipelines for transient detection. Publications since 2023 highlight discoveries of long-period radio transients, emission state-switching phenomena, and multi-instrument follow-up strategies. His work bridges observational astronomy with computational techniques, emphasizing high-time resolution observations and GPU-based imaging for FRB searches.

Marina TsianouView profile

Professor

• Molecularly engineered materials
• Self-assembly
• Interfacial phenomena
• +6 more

Marina Tsianou is a Professor in the Department of Chemical and Biological Engineering at the University at Buffalo (SUNY) , where she focuses on molecularly engineered materials, self-assembly, interfacial phenomena, controlled crystallization, and biomimetics. Her research addresses sustainability challenges in plastic recycling, PFAS pollution, and polymer science. Education : PhD in Chemistry, Lund University, Sweden (2000) MS in Chemical Engineering, Tufts University (1995) Diploma in Chemical Engineering, National Technical University of Athens, Greece (1990) Her research explores interfacial behavior of polymers and surfactants , with applications in plastic recycling, environmental remediation, and biomimetic material design. Recent work emphasizes molecular recycling of plastics using solvent-based methods, PFAS pollutant interactions at interfaces, and crystallinity control in polymers for sustainable solutions. Scientific Recognition : William R. Schowalter Lecture (2023) Her publications highlight trends in polyolefin dissolution , mixed surfactant systems , and biomimetic crystallization . She contributes to plastic waste valorization and textile recycling through advanced chemical-physical transformations. Labs and Teams : She leads research in colloid and surface phenomena at SUNY-Buffalo, advancing molecular-level understanding of polymer-surfactant interactions for environmental applications.

Paul SainesView profile

Professor

• Inorganic Chemistry
• Materials Science
• Magnetism
• +3 more

Dr. Paul Saines is a Reader in Chemistry (Inorganic Materials) at the University of Kent's School of Chemistry and Forensic Science, leading the Materials for Energy and Electronics (MEE) research group. His work focuses on designing coordination frameworks with tailored electronic and magnetic properties for energy and electronics applications. He holds a BSc (First Class Honours) and PhD from the University of Sydney, followed by postdoctoral research at the University of Cambridge (Anthony Cheetham group) and University of Oxford (Andrew Goodwin group), including a prestigious Glasstone Fellowship at Oxford. He joined Kent in 2015 and was awarded the Institute of Physics Physical Crystallography Prize. Research interests include low-dimensional magnetic frameworks, multiferroic materials, and magnetocaloric effects. His group explores crystal structures and their relationships to functional properties using advanced characterization techniques like neutron diffraction. Key projects involve hybrid perovskites, formate frameworks, and geometric frustration in materials. Teaching encompasses inorganic and materials chemistry, including phase diagrams, solid-state synthesis, and magnetic/electronic materials. He supervises PhD/MSc students in experimental inorganic chemistry and condensed matter physics. Notable achievements include developing magnetocaloric materials for low-temperature cooling and elucidating structural dynamics in ferroelectric frameworks. Scientific awards: Institute of Physics Physical Crystallography Prize (2015), Glasstone Fellowship (Oxford, 2013). Labs/Teams: Materials for Energy and Electronics (MEE) Group at Kent, collaborating with international networks in crystallography and materials science.

George R. BacanuView profile

Research Fellow

• Fullerene Spectroscopy
• Endofullerene Spectroscopy
• Endofulleride Spectroscopy
• +5 more

George R. Bacanu is a Senior Research Fellow at the University of Southampton affiliated with the Interdisciplinary Centre for Magnetic Resonance (ICMR). His research focuses on spectroscopic analysis of fullerenes, endofullerenes, and endofullerides to investigate dynamics of confined atomic and molecular species using Nuclear Magnetic Resonance, Neutron scattering, Infra-red, and THz spectroscopy. His primary research explores molecular confinement within carbon cages, particularly examining noble gas interactions in endofullerenes. By integrating multiple spectroscopic techniques, Bacanu characterizes interaction potentials and dynamic behaviors of encapsulated species like helium-3 and krypton, bridging physical chemistry, quantum mechanics, and nanomaterials science. This work reveals fundamental insights into non-bonded interactions and molecular motion at nanoscale. Recent publications (2021-2023) demonstrate consistent methodological innovation through combined NMR, neutron scattering, and computational approaches. Key studies include rubidium endofulleride superconductivity, helium dynamics in C60 cages, and krypton encapsulation synthesis, establishing patterns in confined species behavior across varying experimental conditions and fullerene structures. As a core member of the Spectroscopy, Spectrometry, and Structure group within ICMR, Bacanu utilizes advanced magnetic resonance facilities and collaborates on interdisciplinary projects involving molecular synthesis, quantum dynamics simulation, and neutron scattering experiments at international research centers.

• Soft Materials
• Biological Materials
• Neutron Scattering
• +4 more

Jan Swenson is a researcher at Chalmers University of Technology, where she earned her PhD in Physics in 1996. Her research focuses on soft materials, particularly the role of water in biological systems and supercooled water dynamics. She employs neutron scattering and molecular dynamics simulations to study protein aggregation (e.g., Alzheimer's and Huntington's diseases), lipid nanoparticles for RNA delivery, and sugar-protein interactions. Her work bridges physics, chemistry, and biomedicine, aiming to develop novel materials for medical applications and energy storage. Education: PhD in Physics, Chalmers University of Technology (1996) Postdoctoral Research, University College London, UK (structure/stability of clay gels) Research Interests: Soft materials, biological materials' hydration, neutron scattering analysis, supercooled water properties, and protein stabilization via sugars. Her recent projects include modeling material dynamics using computer simulations and optimizing lipid nanoparticles for therapeutic RNA delivery. Grants & Collaborations: Works with colleagues to develop new data analysis methods for neutron scattering. Active in interdisciplinary projects involving drug delivery systems and materials science. Labs/Teams: Part of Chalmers' research groups focused on biomaterials and energy materials, contributing to structural battery electrolyte development.

• Quantum Spin Systems
• Magnetic Molecules
• Frustration Effects
• +7 more

Prof. Dr. Jürgen Schnack is a theoretical physicist at the Faculty of Physics, Bielefeld University , where he has served since 2007. His academic career includes leadership roles as Vice Dean (2015-2017) and Dean (2017-2019) of the Faculty of Physics. He is a member of the German Physical Society (DPG) , American Physical Society (APS) , and other academic societies. Education: PhD in Physics (1996, Technical University of Darmstadt & GSI), Habilitation (2001, University of Osnabrück) Research: Focus on quantum spin systems, magnetic molecules, frustration effects, and carbon nanomembranes. His work explores decoherence, thermodynamics in non-equilibrium systems, and magnetocaloric effects. Grants: Recipient of projects from the German Research Foundation (FOR 2692, others) and the European Union (e.g., molecule-based magneto/electro/mechano-calorics). Awards: 2002 Hans Mühlenhoff Prize for habilitation; 2006 Fellow of the International Center for Transdisciplinary Sciences, International University Bremen. Advising: Chaired a PhD program with 11 students (2001-2006). Publications: Over 100 peer-reviewed articles in journals like Physical Review Letters , Journal of the American Chemical Society , and Inorganic Chemistry , focusing on frustrated quantum magnets, spin dynamics, and molecular magnetism. Labs/Teams: Leads the Condensed Matter Theory Working Group at Bielefeld University and collaborates with international institutions like Ames Laboratory and INT Seattle.

Patrycja WagnerView profile

Researcher

• Technical Rheology
• Multiphase Flows
• Physicochemistry of Polymers
• +3 more

Dr. Eng. Patrycja Wagner is a researcher at the Poznań University of Technology, Faculty of Chemical Technology, Department of Chemical Engineering and Equipment. Her scientific work focuses on technical rheology, multiphase flows, and the physicochemistry of polymers. She obtained her PhD in chemical sciences in 2021 after completing full-time doctoral studies from 2015-2021 and holds an MSc in Chemical and Process Engineering (2015). Position: Researcher Institution: Poznań University of Technology Department: Chemical Engineering and Equipment Her research spans technical rheology (extensional flow analysis, micellar networks), multiphase systems (surfactant mixtures, emulsions), and polymer physicochemistry (cellulose derivatives, alcohol-water mixtures). She collaborates with KU Leuven's Soft Matter Rheology and Technology Division. Key publications include studies on: Rheological behavior of ionic surfactant mixtures under salt/chelate influence Viscoelastic properties of cellulose derivative emulsions with ethyl alcohol Extensional viscosity characterization using capillary breakup methods Micellar network analysis via Cryo-TEM and SANS techniques She contributes to technical education through laboratory classes in Chemical Engineering, Technical Rheology, and Process Kinetics, while also participating in industry-university collaborations. Wagner is a member of the Polish Society of Technical Rheology and has organized seminars on practical chemical engineering since 2017.