Find Academic Supervisors

• Condensed Matter Physics
• Superconductivity
• Magnetic Materials
• +3 more

Morten Holm Christensen is an Assistant Professor at the Physics of Ice, Climate and Earth department of the Niels Bohr Institute , University of Copenhagen. His work focuses on condensed matter physics, particularly in superconductivity, magnetic materials, and quantum phenomena in complex electronic systems. His research explores unconventional superconductivity in materials such as kagome metals and iron-based pnictides, with a focus on phase transitions, electronic correlations, and the interplay between magnetism and superconductivity. Key topics include time-reversal symmetry-breaking superconductivity, orbital-selective electron-phonon coupling, and nematic fluctuations in superconductors. Recent studies highlight tunability of superconducting properties through strain engineering, theoretical modeling of charge density wave instabilities, and topological superconductivity induced by magnetic textures. His work bridges experimental observations with advanced theoretical frameworks, contributing to the understanding of exotic quantum phases in materials. No scientific awards are explicitly listed in the provided information. Morten’s research is supported by the Niels Bohr Institute’s interdisciplinary environment, leveraging expertise in condensed matter physics and materials science.

• Plasma Physics
• Space Physics
• Dusty Plasma
• +3 more

Krishan Kumar is a Postdoctoral Researcher at West Virginia University's Plasma & Space Physics department, affiliated with the Scime Group. His work focuses on experimental and theoretical investigations of plasma dynamics, particularly in dusty plasma environments. He holds a Researcher academic rank and is engaged in cutting-edge studies of soliton formation, plasma flow phenomena, and phase transitions in complex plasmas. Research Interests: Nonlinear plasma dynamics and soliton physics Experimental studies of dusty plasma systems Phase transitions in non-equilibrium plasmas Wave-particle interactions in flowing plasmas His recent publications (2021-2025) concentrate on soliton excitation mechanisms, plasma flow instabilities, and multidimensional plasma structures. Notable works include experimental validations of soliton theories using the forced Kadomtsev-Petviashvili equation and investigations of Kelvin-Helmholtz instabilities in dusty fluids. Simulation studies using Particle-in-Cell methods complement his experimental efforts. He has also contributed to ionospheric plasma cross-section measurements relevant for space weather studies. Currently, his research explores the interplay between plasma confinement and structural phase transitions in two-dimensional dust crystals, as well as the role of non-thermal electrons in magnetic reconnection processes. These studies are conducted in collaboration with the Scime Group's advanced laboratory facilities.

Florencia MalamudView profile

Researcher

• Neutron Imaging
• Materials Science
• Crystallography
• +3 more

Florencia Malamud is a Researcher and Instrument Scientist at the Paul Scherrer Institute (PSI), leading the POLDI instrument in the Laboratory for Neutron Scattering and Imaging. Her work focuses on advanced neutron-based techniques for material characterization, including Bragg edge imaging, diffraction contrast imaging, and texture analysis. She specializes in studying crystallographic structures, phase transformations, and mechanical behaviors in materials such as high-Mn steels, superalloys, and superconductors. Her research integrates experimental methods like neutron diffraction and tomography to investigate industrial materials (e.g., additive manufacturing components) and historical artifacts (e.g., Napoleonic-era copper bolts). Key areas include optimizing material properties through composition and processing, and understanding deformation mechanisms in metallic materials. Malamud’s publications span materials science, metallurgy, and neutron scattering applications. She collaborates on projects involving nuclear-grade materials, aerospace alloys, and archaeological metallurgy. Her work emphasizes bridging fundamental physics with applied engineering challenges. No scientific awards are explicitly mentioned. Her advising and grants are not detailed in the provided texts. She is affiliated with PSI’s neutron scattering laboratory and contributes to instrumentation development for advanced materials research.

Simon BendingView profile

Professor

• 2D Materials
• Condensed Matter Physics
• Ferromagnetism
• +5 more

Simon Bending is a Professor in the Department of Physics at the University of Bath. He holds affiliations with multiple research centers including the Centre for Nanoscience and Nanotechnology, Condensed Matter Physics, and the Centre for Sustainable Chemical Technologies. His academic journey includes a Ph.D. from Stanford University (1985), postdoctoral research at Max Planck Institut FKF and IBM Zurich Laboratories, and a BA Hons from Cambridge University (1979). His research focuses on nanoscale magnetic phenomena in superconductors and ferromagnetic materials, employing cutting-edge Hall probe magnetic imaging and nanomagnetometry systems. Key areas include vortex dynamics in superconductors, magnetic domain structures in ferromagnetic multilayers, and correlated electron phenomena in 2D materials. Research specialties span superconductivity, spintronics, graphene applications, and scanning probe microscopy. Dr. Bending leads significant projects such as 'Magnetic Metasurfaces for Sustainable Information and Communication' (EPSRC) and 'Intrinsic Pinning in Magnetic Iron-Based Superconductors.' His recent publications demonstrate strong trends in magnetic microscopy advancements, superconducting hybrid structures, and nanoscale materials engineering, frequently published in high-impact journals. Laboratory capabilities include a 300mK scanning Hall microscope and a class 1000 cleanroom suite with electron beam lithography and deposition systems. He collaborates internationally and contributes to materials science roadmaps. His work aligns with UN Sustainable Development Goals through sustainable technology innovations.

Ghislaine M.E. VantommeView profile

Assistant Professor

• Supramolecular Chemistry
• Materials Science
• Organic Synthesis
• +6 more

Ghislaine M.E. Vantomme is an Assistant Professor at Eindhoven University of Technology, leading the Supramolecular Chemistry and Materials group within the Department of Chemical Engineering and Chemistry. Her research focuses on developing adaptive, self-learning supramolecular materials inspired by living systems, integrating organic synthesis, systems chemistry, and materials science. Key areas include molecular computing, bio-(opto)electronics, and sustainable materials design. Academically, she holds a PhD from Strasbourg University (2014) under Prof. Jean-Marie Lehn, and postdoctoral experience at TU Eindhoven with Prof. Bert Meijer. Notable grants include the NWO Veni (2017) and VIDI (2024), alongside the 2026 New Horizons Solvay Lectureship. She teaches advanced organic chemistry courses for engineering and premaster students. Her work contributes to UN Sustainable Development Goals through eco-friendly material innovations. Research highlights include self-regulating hydrogels, chiral semiconductor films, and phase-separated nanomaterials. She collaborates internationally, with recent media coverage on molecular computing and optoelectronic material breakthroughs. Education: PhD in Supramolecular Chemistry, Strasbourg University (2014) MSc, Sorbonne University (Paris) BSc, École Normale Supérieure (Cachan) Research Themes: Biomimetic materials, adaptive systems, molecular self-assembly, chiral optoelectronics. Grants & Awards: NWO Veni (2017) NWO VIDI (2024) Solvay Lectureship (2026) Teaching: Organic Chemistry 1/2, Advanced Molecular Chemistry.

Chase BroederszView profile

Associate Professor

• Cell Migration
• Chromosome Organization
• Biopolymer Mechanics
• +3 more

Chase Broedersz is an Associate Professor at Vrije Universiteit Amsterdam, affiliated with the Faculty of Science's Physics of Living Systems department and the LaserLaB - Energy research group. He leads interdisciplinary research on cell migration, chromosome mechanics, and active matter, combining experimental and theoretical approaches. His work contributes to UN Sustainable Development Goals related to health and innovation. Research Interests: Focus on cell migration dynamics , chromosome organization , biopolymer mechanics , and nonlinear elasticity . Recent studies explore bacterial chromosome topology, metastasis prevention mechanisms, and 3D nuclear deformation during cell movement. His methods include Hi-C data analysis, single-molecule tweezers, and computational modeling. Publications Trends: Recent work emphasizes chromosome condensation mechanics , active matter dynamics , and nonlinear elasticity in biopolymers . Key 2024-2025 studies include ion-mediated mitotic chromosome mechanics and metastasis suppression by miR-200c. Awards: None explicitly listed. Grants/Advising: Supervised one PhD thesis and contributes to datasets like biopolymer matrix nonlinear elasticity studies. Labs/Teams: Active in LaserLaB and collaborates internationally on cell migration and chromosome physics.

Stefano MartinianiView profile

Assistant Professor

• Computational and Statistical Physics
• Materials Science
• Artificial Intelligence for Science
• +5 more

Stefano Martiniani is an Assistant Professor of Physics, Chemistry, Mathematics, and Neuroscience at New York University, affiliated with the Center for Soft Matter Research and the Simons Center for Computational Physical Chemistry. His interdisciplinary research explores computational physics of complex systems, including neural circuit theories, non-equilibrium statistical mechanics, and AI-driven materials discovery. He has pioneered methods for analyzing high-dimensional energy landscapes and received prestigious awards like the NSF CAREER Award (2024) and IUPAP Early Career Prize (2023). Education: PhD in Physics (2017), University of Cambridge MPhil in Physics (2013), University of Cambridge BSc in Physics (2012), Imperial College London Research Interests: His work bridges statistical physics and artificial intelligence, focusing on: Engineering disordered materials with tailored spectral properties Quantifying entropy production in active matter Developing open science frameworks like ColabFit for machine learning interatomic potentials Neural circuit models for cortical communication Grants & Collaborations: Funded by NSF, NIH, Chan Zuckerberg Initiative, and Simons Foundation. Leads interdisciplinary teams in computational physics, AI, and materials science. Labs/Initiatives: Core member of NYU's Center for Soft Matter Research; develops software tools like FReSCo and KLIFF-Torch for computational materials science.

David TurnerView profile

Associate Professor

• Supramolecular Chemistry
• Coordination Chemistry
• Crystallography
• +5 more

David Turner is an Associate Professor in the School of Chemistry at Monash University, specializing in supramolecular and coordination chemistry. His research focuses on chiral coordination polymers, metal-organic frameworks, and hydrogen-bonding networks for applications in enantiomeric separations and gas capture. He holds a PhD from King's College London (2004) and has been recognized with prestigious awards including the ARC Future Fellowship (2013) and Victorian Young Tall Poppy Science Award (2011). He leads the Turner Group, offering PhD projects in chiral supramolecular cages, coordination polymers, and crystal engineering. His community service includes outreach with the Australian Synchrotron and roles as Secretary of SCANZ and former President of the Victorian RACI branch. Recent research highlights include developing amine-based MOFs for precious metal remediation and sustainable phase change materials. Key collaborations involve neutron diffraction studies and advanced radiochemical technologies. His work aligns with UN Sustainable Development Goals related to clean energy and responsible consumption. Grants: ARC Training Centre for Advanced Radiochemical Technologies, Metallosupramolecular Cages for Enantioselective Applications Key Projects: Chiral hydrogen-bonding materials, magnetometry facility development Labs/Teams: The Turner Group at Monash University, collaborating with international partners in crystallography and materials science.

Shun-ichiro KaratoView profile

Professor

• Earth and Planetary Sciences
• Geophysics
• High-Pressure Materials Science
• +3 more

Shun-ichiro Karato is a Professor of Earth & Planetary Sciences at Yale University, affiliated with the Department of Geology and Geophysics. His research focuses on high-pressure materials science, mantle dynamics, and planetary evolution. He leads experimental studies using advanced facilities like the 1000-ton Kawai-type Multi-anvil Apparatus and field-emission SEM with EBSD for microstructural analysis. Education: PhD in Geophysics, University of Tokyo, 1977 MSc in Geophysics, University of Tokyo, 1974 BSc in Geophysics, University of Tokyo, 1972 His research interests include water distribution in planetary interiors, deformation mechanisms of mantle minerals, and the role of volatiles in Earth’s dynamics. He collaborates across disciplines to integrate experimental, theoretical, and observational approaches. Recent work explores hydrogen dissolution in bridgmanite, mantle rheology under high pressure-temperature conditions, and the implications of seismic anomalies for mantle structure. Labs/Facilities: Karato oversees cutting-edge facilities enabling high-pressure/temperature experiments, including rotational Drickamer apparatuses and synchrotron-based deformation studies. These tools support investigations into phase transitions, deformation mechanisms, and melt localization in the mantle. Teaching: Teaches courses like Introduction to Earth Materials (G&G 319/519), Deformation of Earth Materials (G&G 450/650), and Seminar on Mantle and Core Geophysics (G&G 744).

Sai VanapalliView profile

Professor

• Geotechnical Engineering
• Unsaturated Soil Mechanics
• Pavement Design
• +7 more

Dr. Sai Vanapalli is a Professor and Chair of the Department of Civil Engineering at the University of Ottawa. He holds a Ph.D. from the University of Saskatchewan (1994) and an M.Tech. from Kakatiya University, India. His research focuses on unsaturated soil mechanics, including foundation design, expansive soils, freeze-thaw effects, and pavement engineering. He has authored/co-authored over 125 publications, supervised 16 graduate students, and pioneered state-of-the-art laboratory equipment for unsaturated soil testing. Dr. Vanapalli has organized major international conferences such as the Diamond Jubilee Canadian Geotechnical Conference (2007) and the 12th IACMAG (2008). He received the Stermac Award (2010) and multiple teaching awards, including the OCUFA Teaching Excellence Award (2007). His lab houses advanced equipment like the modified ring shear test apparatus and University of Ottawa Bearing Capacity Equipment (UOBCE), supported by grants from the Canadian Foundation for Innovation (CFI-LOF). Key research themes include geotechnical engineering, unsaturated soil technology, geo-environmental studies, and critical state mechanics. His work bridges theory and practice, emphasizing practical engineering solutions for unsaturated soil challenges. He actively reviews for journals like Geotechnique and serves on editorial boards, furthering global knowledge exchange in geotechnics.

Philip J. ReidView profile

Professor

• Spectroscopy
• Physical Chemistry
• Single-Molecule Photophysics
• +4 more

Philip J. Reid serves as Professor and Vice Provost for Academic & Student Affairs at the University of Washington's Department of Chemistry. With a Ph.D. from the University of California at Berkeley (1992), he maintains an active research program while holding significant administrative responsibilities within the university structure. Professor Reid's research focuses on molecular photophysics at the single-molecule level, particularly investigating fluorescence intermittency (blinking) , charge transfer processes , and guest-host interactions in various materials systems. His laboratory employs advanced confocal microscopy and femtosecond spectroscopy techniques to study phenomena in semiconductor nanocrystals, polymer matrices, and molecular crystals. Key research areas include understanding the nature of non-emissive states that serve as gateways to material decomposition, temperature-dependent photophysics around polymer glass transitions, and proton transfer mechanisms in crystalline environments. Analysis of Professor Reid's recent publications reveals consistent focus on single-molecule spectroscopy applied to nanomaterials and polymers. His work demonstrates how molecular-scale photophysical measurements can provide insights not obtainable through bulk techniques, particularly regarding environmental effects on photostability and emission properties. The research bridges fundamental physical chemistry with practical applications in photonic materials. Professor Reid has advised numerous graduate students and postdoctoral researchers who have gone on to diverse careers in academia, government, and industry. His laboratory collaborates extensively with other research groups, notably the Gamelin Lab at UW and the Kahr Group at New York University, reflecting the interdisciplinary nature of his work. The Reid Lab operates custom-built confocal microscopy systems designed for single-molecule investigations. Research focuses on chromophore-polymer systems and mixed-crystal materials where single molecules are isolated in well-defined environments. This approach allows precise investigation of molecular photophysics while minimizing complications from oxygen permeability and nonradiative relaxation.

Steven Allan KivelsonView profile

Professor

• Condensed Matter Physics
• Quantum Hall Effect
• High-Temperature Superconductivity
• +5 more

Steven Allan Kivelson is a Professor of Physics at Stanford University, elected to the National Academy of Sciences in 2001. His research focuses on condensed matter physics, particularly in quantum phase transitions, high-temperature superconductivity, and strongly correlated electron systems. He has made seminal contributions to understanding 1-D electronic systems, the Quantum Hall Effect, spin polarized systems, and the striped phase model of cuprate superconductors. His work spans theoretical and experimental collaborations, addressing phenomena such as charge density waves, nematicity, and emergent gauge fields in quantum materials. Recent studies include investigations into pair-density-wave states, time-reversal symmetry breaking, and the interplay between superconductivity and disorder in materials like nickelates and iron-based superconductors. Key awards include membership in the National Academy of Sciences. His research is supported by grants such as the NSF-BSF collaboration on quantum materials theory. Kivelson’s contributions bridge fundamental theoretical insights with material-specific applications, advancing our understanding of complex electronic phases and their technological implications.

Himanshu JainView profile

Professor

• Glass Science and Technology
• Photonics
• Nanomaterials
• +5 more

Dr. Himanshu Jain is the T.L. Diamond Distinguished Chair in Engineering and Applied Science and a Professor of Materials Science & Engineering at Lehigh University. He leads the International Materials Institute for New Functionality in Glass and previously directed the Institute for Functional Materials and Devices (I-FMD). His research focuses on advancing glass science through innovations in photonics, bioactive materials, crystal engineering, and laser processing. Education: D.Eng.Sc., Materials Science, Columbia University M.Tech., Indian Institute of Technology (India) M.S., Banaras Hindu University (India) B.S., Kanpur University (India) Research Interests: Laser-induced single-crystal architectures in glass Optical and electronic functionalities in glass Biomedical applications of bioactive glass (e.g., bone scaffolds) Thermal and radiation effects on glass properties Machine learning for crystal growth modeling Awards: Recipient of Otto Schott Research Prize for atomic fluctuation models Zachariasen Award for lithium transport discovery Morey Award for defining new glass science horizons Fulbright and Humboldt Fellowships Advising & Grants: Has supervised numerous students and secured grants for interdisciplinary projects. Active in collaborative initiatives like the Lehigh-NC A&T flood damage mapping partnership. Labs/Teams: Oversees Lehigh's advanced materials facilities, including Sinclair Lab 120A. Coordinates global networks for glass science education and research.

Anja SchlömerkemperView profile

Professor

• Mathematical Analysis
• Partial Differential Equations
• Calculus of Variations
• +3 more

Prof. Anja Schlömerkemper holds the Chair of Mathematics in the Sciences at the University of Würzburg since 2011 and serves as Vice President responsible for Equal Opportunities, Career Planning, and Sustainability. She earned her PhD in Mathematics from the University of Leipzig (2002) and held postdoctoral positions at institutions including the University of Oxford and the Max Planck Institute for Mathematics in the Sciences. Her research focuses on mathematical analysis, particularly partial differential equations and calculus of variations, with applications to materials science and physics. She investigates mathematical methods to model material behavior at micro and macro scales, including elastic and magnetic materials. Her work bridges theoretical analysis and practical applications in continuum mechanics. She has contributed to fluid-rigid body interactions, magnetoelastic materials, and phase transitions. As Vice President, she promotes gender equality, supports early-career researchers, and advances sustainability across the university's research, teaching, and administration. Education: PhD in Mathematics (Leipzig, 2002) and Diploma in Physics (Göttingen, 1998). Professional Experience includes roles at the Universities of Bonn, Erlangen-Nuremberg, and Stuttgart, as well as the Max Planck Institute. Research interests also encompass homogenization theory, dislocation dynamics, and stochastic discrete systems. She leads interdisciplinary projects, collaborates internationally, and advises on academic policies.

• Theoretical Chemistry
• Computational Chemistry
• Polymer Chemistry
• +5 more

Dr. Beverly Stewart is a Lecturer in the Theoretical & Computational Chemistry Area at the School of Chemistry & Biosciences, part of the Faculty of Life Sciences at the University of Bradford. Her research focuses on computational chemistry, polymer chemistry, and photonic devices, with particular emphasis on self-assembly processes, high-pressure material behavior, and nanotechnology applications. She has contributed to advancements in conjugated polymers, surfactant interactions, and materials science through experimental and computational methodologies. Her work explores the synthesis and characterization of novel materials, including phosphiranium salts and functional polymers for optoelectronic applications. Notable projects include studies on 3D fabrication with integrated electronics, high-pressure phase transitions in organic semiconductors, and the design of photonic devices. Dr. Stewart’s research frequently intersects with nanotechnology, aiming to develop functional materials with practical applications in sensors and electronics. Dr. Stewart has published extensively on topics such as molecular dynamics simulations of polymer self-assembly, high-pressure chemistry of thiophene derivatives, and the synthesis of air-stable primary phosphanes. Her articles highlight trends in materials design, including the optimization of electronic and photonic properties through structural modifications and environmental conditions. While no specific awards are listed, her contributions to polymer science and computational chemistry reflect a strong research trajectory. She collaborates on interdisciplinary projects, though specific grants or lab affiliations are not detailed in the provided text.