Find Academic Supervisors

• Condensed Matter Physics
• Quantum Fluids
• Superfluidity
• +5 more

Andrei Golov is a Professor of Condensed Matter Physics in the School of Physics and Astronomy at the University of Manchester. He has held this position since August 1, 2009, and serves as the head of the Low Temperature Physics Group. His academic journey began at the Kolmogorov Special Boarding School for Physics and Mathematics at Moscow State University (1975-1977), followed by studies at the Moscow Institute of Physics and Technology (1977-1983), where he earned his MSc in Solid State Physics. He completed his PhD in 1989 at the Institute of Solid State Physics, Russian Academy of Sciences. Golov's primary research focuses on quantum fluids, particularly superfluid 3 He and 4 He. His work examines quantized vortices, topological defects, and quantum turbulence in these systems. He investigates the properties of turbulent superfluid 4 He at zero temperature, where thermal excitations become irrelevant, with particular interest in the dynamics of tangles of vortex lines, their wavy behavior, and reconnections. More recently, his research has expanded to include properties of mobile dislocations in solid helium at temperatures below 100 mK. Analysis of Golov's recent publications reveals a consistent focus on quantum turbulence in superfluid helium systems, with particular emphasis on vortex dynamics, numerical modeling, and experimental techniques for studying these quantum phenomena. His work spans both theoretical and experimental approaches, with publications appearing in journals such as Journal of Low Temperature Physics, New Journal of Physics, and Physical Review Fluids. Golov maintains an active research group and welcomes postgraduate students to join his ongoing research projects, particularly on turbulence in superfluid 4 He in the T=0 limit. He has supervised eight postgraduate students throughout his career and leads the Low Temperature Physics Group at Manchester, which conducts research in quantum fluids and related phenomena.

Małgorzata FranzView profile

Assistant Professor

• Positron-molecule scattering
• Organic electronics
• Thin film transistors
• +5 more

Dr. Małgorzata Franz serves as an Assistant Professor at the Institute of Physics and Applied Computer Science within the Faculty of Applied Physics and Mathematics at Gdańsk University of Technology. Her office is located in Building B, room 519. With over two decades of research experience documented in 25 publications, Dr. Franz has established herself as a prominent researcher in molecular physics and organic electronics. Dr. Franz's research focuses on two primary domains: positron-molecule interactions and organic semiconductor materials . Her work encompasses: Positron and positronium scattering with organic molecules Monte Carlo simulations of particle interactions in biological and organic materials Thin film transistors based on pentacene and tetracene derivatives Photovoltaic properties of organic materials Charge carrier generation, transport, and recombination mechanisms Development of organic-based gas sensors Analysis of Dr. Franz's publication record reveals a clear evolution in her research trajectory. Early in her career (2002-2011), she concentrated on fundamental properties of organic semiconductors, particularly charge carrier behavior in tetracene and pentacene layers. Around 2011-2017, her work expanded to include applications of organic electronics, especially in gas sensing and photovoltaic devices. Since 2017, there has been a pronounced shift toward positron physics, with numerous publications on positron scattering, annihilation, and Monte Carlo simulations of positron interactions with organic molecules. Her most recent work (2023-2025) demonstrates sophisticated computational approaches to modeling positron and positronium behavior in complex materials systems, particularly focusing on benzene and biological materials.

Nik Reeves-McLarenView profile

Senior Lecturer

• Energy Storage Materials
• Battery Technology
• Materials Characterization Techniques
• +3 more

Dr Nik Reeves-McLaren is a Senior Lecturer in Energy Materials at the School of Chemical, Materials and Biological Engineering, University of Sheffield. He serves as Interim Head of the Engineering Graduate School and leads the Raman Small Research Facility. His research focuses on energy storage materials, particularly electrode and solid electrolyte materials for lithium-ion and sodium-ion batteries. BSc (Hons) in Chemistry with New Materials Technology, University of Aberdeen (1999) PhD in Energy Materials, University of Sheffield His research program emphasizes in situ and operando characterization of energy storage materials using X-ray diffraction/tomography, neutron diffraction, muon spectroscopy, and Raman spectroscopy. He authored the primer Inside Energy Storage Materials (AIP, 2022) and has contributed chapters on X-ray absorption spectroscopy and future directions in energy storage research. Key research themes include: Development of novel electrode materials for lithium/sodium-ion batteries Operando diffraction studies of battery materials Improving battery safety and manufacturing costs Raman spectroscopy applications in quality control He has published extensively in journals like Advanced Science , Materials Research Express , and Journal of Physical Chemistry C , with a focus on solid-state electrochemistry and materials characterization. Scientific contributions include: Senior Fellow of the Higher Education Authority Member of the Royal Society of Chemistry Dr Reeves-McLaren supervises four PhD researchers and contributes to teaching through modules such as Materials Processing and Characterisation, Energy Generation and Storage, and Transferable Skills for Engineers.

Toby HudsonView profile

Senior Lecturer

• Theoretical Materials Chemistry
• Amorphous Materials and Glasses
• Network Solids
• +4 more

Toby Hudson is a Senior Lecturer in Theoretical Materials Chemistry at the University of Sydney , School of Chemistry. He serves as Director of First-Year Chemistry and Science Academic Lead for the prestigious Dalyell Scholars Program. Since 2008 he has been a continuing member of the faculty, teaching core undergraduate chemistry and coordinating large cohorts of students. Education B.Sc. (Advanced) (Hons I & University Medal), Chemistry & Physics, University of Sydney (1999) D.Phil., Materials Science, University of Oxford (2004) Graduate Certificate in Educational Studies (Higher Education), University of Sydney (2009) Research Interests Hudson’s research sits at the intersection of computational chemistry and condensed-matter physics, with a focus on the structure and dynamics of non-crystalline materials. He employs Monte-Carlo and molecular-dynamics techniques to understand how local rearrangements in network glasses and liquids lead to macroscopic phenomena such as stress relaxation, crystal nucleation and flow. An additional strand of his work targets optimal packing problems in binary colloidal systems, bridging geometry, thermodynamics and materials design. Current active projects include: Mechanisms of stress relaxation in network liquids and glasses Discovery of ultra-dense binary hard-sphere crystal structures Integration of chemically informed moves into global structure-search algorithms Publication Trends Across more than forty refereed papers since 2002, Hudson’s work has consistently exploited large-scale simulation to uncover rules governing structure in disordered and partially ordered materials. Early studies addressed radiation damage and interfaces in silicon nitride ceramics, while recent output centres on soft-matter systems—Janus colloids, helical rods and binary sphere mixtures—where geometric frustration and entropy compete to yield complex phase behaviour. A 2020 eLife article extends his collaborative reach into bioinformatics, applying knowledge-graph methodologies to life-science data. Awards & Honours University Medal, University of Sydney (1999) Faculty of Science Academic Learning and Teaching Fellowship (2014) Supervision & Grants Hudson currently supervises PhD candidates in joint cotutelle agreements with Ca’ Foscari University of Venice (shared enrolment with Prof Achille Giacometti) and directly mentors domestic postgraduate students. He has held continuous ARC Discovery Project funding since 2008 and received competitive internal fellowships supporting algorithmic innovation and pedagogical development. Laboratory & Team He leads the Computational Materials Chemistry Group within the School of Chemistry, maintaining high-performance computing clusters dedicated to Monte-Carlo and molecular-dynamics workloads. The group collaborates closely with experimental soft-matter teams in Italy and condensed-matter theorists at Oxford.

Nicolas GiovambattistaView profile

Professor

• Computer simulations
• Thermodynamics
• Statistical mechanics
• +5 more

Nicolas Giovambattista is a Professor in the Department of Physics at Brooklyn College, CUNY, within the School of Natural and Behavioral Sciences. His work bridges computational simulations with thermodynamic theory to explore liquids and glasses, particularly water and aqueous systems. He focuses on both application-driven and fundamental research, including liquid-liquid phase transitions, nuclear quantum effects, and cryopreservation. Education: B.S. in Physics (Honors) from National University of Mar del Plata, Argentina (1998) Ph.D. in Physics from Boston University (2004) Research Interests: Using computer simulations and potential energy landscape formalism, he investigates glass polymorphism, solvent-induced interactions at nanoscale interfaces, and quantum effects on water's thermodynamic properties. Key areas include amorphous ice transformations, hydrophobic/hydrophilic surface interactions, and energy harvesting via capillary bridges. Publications (2024 and 2025): Recent work emphasizes nuclear quantum effects in polymorphic systems, machine-learning potentials for water glasses, and interfacial water dynamics. Topics span from computational models of capillary bridges to theoretical frameworks for liquid-liquid phase transitions and glassy behavior. Scientific Awards: 2019 PCCP Editor's 'Hot' paper designation 2018 PCCP Editor's 'Hot' paper designation 2016 Journal of Chemical Physics cover feature

• Electrochemistry
• Surface Science
• Materials Physics
• +3 more

Dr. Yvonne Grunder is a Royal Society University Research Fellow at the Department of Physics and Stephenson Institute for Renewable Energy, University of Liverpool. Her research focuses on atomic-scale characterization of electrochemical interfaces using in-situ X-ray diffraction and scattering techniques. PhD in Physics (Technische Universität Berlin, 2008) Postdoctoral appointments at Christian-Albrechts-Universität Kiel (2008-10) and University of Manchester (2010-13) Research Highlights: Charge distribution and structural behavior at electrochemical interfaces Studies of bimetallic electro-catalysts' stability Non-aqueous electrochemical solvents Advanced materials characterization via synchrotron-based techniques Research Outputs: Key contributor to XMaS beamline upgrades at ESRF Published in journals like JACS , Electrochemical Science Advances , and Journal of Physical Chemistry C Scientific Awards: Joachim Walter Schultze Prize (AGEF e.V., 2014) Grants: Royal Society Research Fellow (2013-2022) EPSRC funding for XMaS facility upgrades (2023-2024) Multiple Royal Society grants for electrochemical interface studies (2018-2024) Professional Affiliations: Fellow of the Institute of Physics Member of Royal Society of Chemistry International Society of Electrochemistry Deutsche Physikalische Gesellschaft

Jay LaVerneView profile

Professor

• Radiation Chemistry
• Nuclear Engineering
• Physical Chemistry
• +3 more

Jay LaVerne is a Professor and Concurrent Professional Specialist in the Department of Physics at the University of Notre Dame. He works at the Radiation Research Building and Nuclear Structure Laboratory, focusing on radiation effects in condensed phases, radiolysis techniques, and track structure modeling. Professor, Department of Physics, University of Notre Dame Education: Ph.D. in Physical Chemistry (University of Nebraska, 1981), B.S. in Chemistry (Lamar University, 1972) His multidisciplinary research spans fundamental radiation physics/chemistry and applications in nuclear reactor technology, radioactive waste management, and astrochemistry. He studies hydrogen atom formation, interfacial radiation effects, and radiation stability of materials using experimental and theoretical methods. Recent publications (2023) emphasize radiation effects on aqueous solutions, ceramics, and uranyl clusters, alongside computational track-structure simulations. Earlier works investigate hydrogen generation at interfaces and radiation-induced changes in oxides. He utilizes facilities like the Notre Dame Radiation Laboratory and employs techniques such as gamma/heavy ion radiolysis, EPR, and diffusion-kinetic modeling. Collaborations include researchers from chemistry, physics, and nuclear engineering domains.

Hongbo ZengView profile

Professor

• Colloids and Interface Science
• Biomedical Engineering
• Materials Characterization and Processing
• +9 more

Dr. Hongbo Zeng is a Professor in the Department of Chemical and Materials Engineering at the University of Alberta's Faculty of Engineering. He holds a Tier 1 Canada Research Chair in Intermolecular Forces and Interfacial Science and is a Fellow of multiple prestigious academies including the Canadian Academy of Engineering and the Royal Society of Canada. His work bridges fundamental surface science with practical applications in energy, environmental, and biomedical fields. Education: Ph.D. in Chemical Engineering from University of California, Santa Barbara (Supervisors: Prof. Jacob N. Israelachvili, Prof. Matthew V. Tirrell) M.S. in Materials Science from Tsinghua University, Beijing, China B.S. in Polymeric Materials Science and Chemical Engineering from Tsinghua University, Beijing, China Dr. Zeng's research focuses on colloid and interface science, functional materials & nanotechnology, with special emphasis on intermolecular and surface interactions in soft materials including polymers, biopolymers, surfactants, emulsions, and hydrogels. His work extends to petroleum, oil sands and mineral processing, and development of functional materials like self-healing materials. His lab has pioneered nanomechanical tools to probe intermolecular and interfacial forces at solid/water/oil/gas interfaces and between highly deformable objects such as gas bubbles and liquid emulsion drops. His recent publications demonstrate a strong focus on interfacial phenomena, with particular attention to hydrophobic interactions, wet adhesion mechanisms, and advanced materials for environmental applications. His work bridges fundamental surface science with practical applications in oil sands processing, water treatment, and biomedical engineering, showing consistent innovation in both methodology development and practical implementation. Scientific Awards: Tier 1 Canada Research Chair in Intermolecular Forces and Interfacial Science Fellow of the Canadian Academy of Engineering (FCAE) NSERC E.W.R. Steacie Memorial Fellowship Martha Cook Piper Research Prize Petro-Canada Young Innovator Award van der Waals Prize Engineering Research Award of the University of Alberta Dr. Zeng has published over 500 peer-reviewed journal articles in leading academic journals, along with one book and eleven book chapters. His research has been supported by numerous grants from NSERC, Canada Research Chairs program, and other funding agencies. He has advised numerous graduate students and postdoctoral fellows who have gone on to successful careers in academia and industry. His Surface Science and Molecular Forces Lab at the University of Alberta is a leading center for interfacial science research in Canada. Dr. Zeng leads the Surface Science and Molecular Forces Lab at the University of Alberta, where his team develops and applies advanced nanomechanical tools to investigate intermolecular forces and interfacial phenomena. The lab's work spans fundamental research on molecular interactions to applied projects addressing challenges in oil sands processing, water treatment, and biomedical materials development.

• Solid-liquid interfaces
• Nanoscale Electromagnetism
• Biophysical and medical research

Dr. Miro Cafolla is an Addison Wheeler Fellow in the Department of Physics at Durham University, with an associate fellowship in the Institute of Advanced Study. His research spans solid-liquid interfaces, nanoscale electromagnetism, and biophysical/medical applications. University: Durham University Department: Physics Ranks: Research Fellow (Addison Wheeler Fellow), Associate Fellow His work focuses on nanoscale phenomena, including spintronics, magnetic multilayers, hydration landscapes in clays, and microcantilever biosensors. Publications highlight interdisciplinary approaches bridging physics, materials science, and biomedical research. Recent articles explore flexible spintronics, nanoscale lubrication mechanisms, and biosensing applications. Scientific awards include prestigious fellowships and contributions to advanced materials research. Addison Wheeler Fellow Associate Fellow, Institute of Advanced Study He employs atomic force microscopy (AFM) for quantitative analysis of material properties and biological systems, with a focus on surface interactions and friction dynamics.

Bert GeerdinkView profile

Researcher

• Catalysis
• Material Science
• Infrared Spectroscopy
• +6 more

Bert Geerdink is a chemistry researcher affiliated with the University of Twente , specifically within the Faculty of Science and Technology 's Chemical Engineering department. He is a member of the Catalytic Processes and Materials group, contributing to material science and catalysis research since 1995. His key roles include developing scientific instruments, supporting Ph.D. candidates and PostDocs, maintaining facilities, managing budgets, and handling computer-related tasks. Active member of the Faculty Council (FC-ST) Health, Safety, and Environment (HSE) officer for his research group His expertise spans: Chemistry : Inorganic chemistry, corrosion studies Material Science : Liquid-solid interfaces, temperature-dependent material behavior Instrumentation : Infrared reflection spectroscopy, electric field applications

Cynthia GohView profile

Professor

• Physical Chemistry
• Nanoscale Structures
• Surface Science
• +3 more

Professor Cynthia Goh is a faculty member in the Department of Chemistry at the University of Toronto, with a cross-appointment to the Department of Materials Science and Engineering. Her research focuses on phenomena at the nanometer scale (tens to thousands of angstroms), emphasizing transitions from molecular to macroscopic systems. She investigates interfaces and structures using advanced techniques like atomic force microscopy (AFM) and nonlinear optical methods (second harmonic generation and sum frequency generation). Her current projects include studying collagen fiber assembly, paired helical filaments (PHF) in Alzheimer’s disease, and interfacial dynamics in liquid/air, liquid/liquid, and liquid/solid systems. Key areas of exploration involve water behavior near charged interfaces and cooperative adsorption at model membranes. Her work integrates interdisciplinary approaches from physics, chemistry, and biology. Professor Goh’s lab employs cutting-edge techniques to bridge molecular and macroscopic scales, addressing fundamental questions in materials, biophysics, and surface science.

• Condensed Matter Physics
• Theoretical Physics
• Nanotechnology
• +3 more

Giulia Rossi is an Associate Professor at the University of Genoa's Department of Physics. Her research focuses on theoretical and computational condensed matter physics, particularly investigating nanoscale properties of hard and soft matter, including applications in biomaterials and nanotechnology. She leads the Nanobiocomp group, which develops computational models to study nanoparticle interactions with biological systems. Education: PhD in Physics (2007), Master in Science Communication (2006), and Degree in Physics (2004), all from DIFI (University of Genoa). She has held postdoctoral positions at Aalto University and INSERM, and contributed to EU FP7 projects. Research interests include nanoparticle-biomembrane interactions, coarse-grained modeling, and nanomaterial design. Publications span topics like lipid membrane fusion, nanoparticle assembly, and computational methods. The Nanobiocomp group's work is detailed at www.nanobiocomp.com .

Alessandro De MartinoView profile

Senior Lecturer

• Condensed Matter Physics
• Quantum Materials
• Graphene
• +4 more

Dr Alessandro De Martino is a Senior Lecturer in the Department of Mathematics at City, University of London. He holds a PhD in Theory of Elementary Particles from SISSA (Trieste, Italy) and has held academic positions at Heinrich Heine University Düsseldorf, University of Cologne, and visiting roles at University Federico II (Naples) and University of Padova. He is a theoretical condensed matter physicist specializing in electronic and transport properties of quantum materials like graphene, topological insulators, and Weyl semimetals. His work involves collaborations with institutions including Donostia International Physics Center and IIT Kanpur. He serves on the organizing committee of the annual Capri Spring School on Transport in Nanostructures. Research focuses on novel quantum materials’ electronic properties, including carbon nanotubes, topological phases, and Weyl semimetals. His recent articles (2020–2025) explore Weyl semimetal waveguides, Fermi arcs in magnetic fields, and nodal-line semimetal interfaces. He has received the Italian National Scientific Habilitation as Full Professor (2020). Teaching roles include advanced complex analysis and mathematical modeling courses. Professional activities include organizing conferences and workshops on quantum materials and topological condensed matter.

Weiyu LiView profile

Assistant Professor

• Electrochemical Systems
• Energy Storage
• Data-Assimilation
• +3 more

Dr. Weiyu Li is an Alfred Fritz Assistant Professor in the Department of Mechanical Engineering at the University of Wisconsin-Madison. She leads the Li’s Energy and Sustainability Solutions (LESS) lab, focused on advancing sustainable energy systems through theoretical and computational modeling. Her research emphasizes transport phenomena in high-energy-density batteries, environmental fluid dynamics, and biomedical modeling. Dr. Li holds a PhD in Energy Science and Engineering from Stanford University (2023) and an M.Sc. in Mechanical and Aerospace Engineering from Princeton University (2019). She has received notable awards including the Siebel Scholar (2023) and the Alfred Fritz Professorship (2024). Her articles span energy storage innovations, sustainable agriculture, and biomedical applications. Current courses taught include M E 299 (Independent Study) and M E 364 (Elementary Heat Transfer). She is actively recruiting PhD students for Spring/Fall 2025.

Matthew GlaserView profile

Lecturer

• Statistical Physics
• Condensed Matter Physics
• Biophysics
• +3 more

Matthew Glaser is a Lecturer in the Department of Physics at the University of Colorado. His research focuses on the statistical physics of soft condensed matter, including liquid crystals, colloids, and biomaterials. He employs computational modeling and simulation to study phenomena such as nanostructure formation, nonequilibrium self-organization, and phase behavior in soft materials. His work spans topics like active liquid crystalline matter, charge transport in semiconductors, and the development of coarse-graining methods for molecular simulation. Selected publications highlight contributions to understanding helical nanofilament phases, chiral isotropic liquids from achiral molecules, and microtubule depolymerization mechanisms. His research emphasizes interdisciplinary approaches, blending physics with materials science and biophysics. Glaser holds an office in DUAN F515 and can be reached at (303) 492-3029.