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James WatkinsView profile

Professor

• Materials Science
• Nanotechnology
• Energy Storage
• +6 more

James Watkins is a Professor in the Department of Polymer Science and Engineering at the University of Massachusetts Amherst. His research focuses on nanoscale and hybrid materials for advanced devices, including energy storage, flexible electronics, and metamaterials. He leads the Watkins Research Group, which integrates fundamental studies of polymer phase behavior with scalable manufacturing techniques like roll-to-roll processing and nanoimprint lithography. Key applications include structural batteries, metalenses, and supercapacitors. Education: B.S. and M.S. in Chemical Engineering from Johns Hopkins University (1987–1988), followed by a Ph.D. in Polymer Science & Engineering from UMass Amherst (1997). His work spans interdisciplinary collaborations in materials science, electrical engineering, and chemistry. Research Interests: Macromolecular templates for device structures, materials synthesis in supercritical fluids, phase behavior studies, and scalable nanomanufacturing. His team develops novel approaches for large-area nanostructured materials, leveraging photothermal processing and brush block copolymers. Key Projects: Advanced Print and Roll-to-Roll Manufacturing Facility, Myrias Optics Inc. (metalenses commercialization), Metaoptics Research. Awards: Includes Fellowships from the National Academy of Inventors (2021), American Physical Society (2012), and prestigious grants like the Packard Foundation and NSF CAREER awards. His contributions span academic and industrial partnerships, with technology transfer to commercial partners. Lab/Teams: The Watkins Group includes graduate students, postdocs, and senior scientists. They utilize the UMass facility for roll-to-roll manufacturing, advancing technologies like Fano-resonant metamaterials and instant-healing elastomers.

Mikhail KatsnelsonView profile

Professor

• Theory of magnetism
• Electronic structure of solids
• Lattice properties of metals and alloys
• +4 more

Mikhail Katsnelson is a Professor of Theoretical Physics and head of the Theory of Condensed Matter Group at Radboud University Nijmegen, Netherlands. He has held academic positions at Ural State University, Russia (1992-2001), Institute of Metal Physics (1977-2003), and Uppsala University, Sweden (2002-2004). His research spans multiple domains of condensed matter physics and quantum theory. Education: M.Sc. in Theoretical Physics (1977), Ph.D. (1980), D.Sc. (1985) Research Interests include the theory of magnetism, electronic structure of solids, lattice properties of metals, quantum many-body theory, strongly correlated systems, nanophysics, and graphene. His work bridges fundamental quantum mechanics and applied materials science. Publication Trends highlight graphene physics, quantum transport, Dirac fermions, and strongly correlated systems. His research often appears in high-impact journals like Nature, Science, and Physical Review Letters. Scientific Awards : 2013 ERC Advanced Grant 2013 Spinoza Prize 2012 Honorary Doctor of Uppsala University 2011 Knight of the Order of the Netherlands Lion 2010 Radboud Science Award 1988 Lenin Komsomol Prize As head of the Theory of Condensed Matter Group, he leads cutting-edge research in graphene and two-dimensional materials. He has refereed for top journals and served on editorial boards, including the Journal of Physics: Condensed Matter.

Peter HedströmView profile

Professor

• Materials Science
• Materials Design
• Phase Transformations
• +8 more

Peter Hedström is a Professor of Materials Science at the Department of Materials Science and Engineering, KTH Royal Institute of Technology. He leads the Hultgren Laboratory for Materials Characterization and directs the Center for X-rays in Swedish Materials Science (CeXS) and the Vinnova competence center NEXT. His research focuses on advanced materials characterization, structure-property relations, and materials design, particularly in metallic alloys, steels, ceramics, and composites. He co-founded companies Ferritico and Scatterin based on his research. Hedström’s work leverages large-scale infrastructure like synchrotron and neutron methods, with key projects including ENDUREIT for improving duplex stainless steels and Track-AM for additive manufacturing analysis. Education: PhD from Luleå University of Technology. Earlier roles at MEFOS/Swerim before joining KTH in 2008. Research Interests: Phase transformations, materials characterization (e.g., synchrotron/X-ray/neutron techniques), additive manufacturing, machine learning applications, and fatigue mechanics. His group explores topics like low-temperature embrittlement, microstructure-strength relationships, and cemented carbide sintering. Articles Trends: Recent work emphasizes in-situ observations of phase separation, precipitation kinetics, and microstructural stability under fatigue. Studies often integrate computational modeling with experimental methods, highlighting interdisciplinary approaches. Grants/Projects: Directs CeXS (hosting the Swedish beamline P21 at PETRA III) and NEXT. Active in EIT Raw Materials (ENDUREIT) and MMD initiatives. Supervises PhD/postdoc projects in neutron scattering, Mg-AM, and machine learning. Labs/Teams: Hultgren Laboratory, SwedNess graduate school, and collaborations with industrial partners like Ferritico.

Andrei VedernikovView profile

Professor

• Organotransition Metal Chemistry
• Catalysis
• Reaction Mechanisms
• +4 more

Andrei Vedernikov is a Professor of Chemistry & Biochemistry at the University of Maryland, affiliated with the Institute for Physical Science and Technology (IPST). His research focuses on organotransition metal chemistry, catalysis, and reaction mechanisms with an emphasis on green synthetic methodologies using oxygen-based oxidants (O₂ and H₂O₂) for C-H and C-C bond functionalization. Key areas include platinum and palladium complex design, oxidative functionalization, and mechanistic studies using computational DFT methods. Recent work highlights catalytic systems for aerobic C-H bond activation, photoredox-mediated transformations, and the development of ligands to enhance reactivity. His studies often explore high-valent metal intermediates and their role in bond cleavage/formation. Applications span green chemistry, sustainable synthesis, and materials science. Notably, he investigates methane functionalization pathways and oxygen-driven catalytic cycles. Publications emphasize platinum/palladium complexes' reactivity under oxidative conditions, ligand effects on selectivity, and substrate scope in C(sp²)- and C(sp³)-H activations. Research also extends to mesoporous materials for toxic chemical filtration and mechanistic insights into NO binding in transition metal systems. Awards: None explicitly mentioned in current data. Advising and grants: No student names or grant details provided. Laboratory affiliations include IPST and the Chemistry & Biochemistry Department at UMD.

Shuxia TaoView profile

Associate Professor

• Computational Materials Physics
• Machine Learning for Materials Design
• Semiconducting Materials
• +5 more

Shuxia Tao is an Associate Professor at the Department of Applied Physics, Eindhoven University of Technology (TU/e), leading the Computational Materials Physics Group. Her research bridges quantum mechanics and macroscopic material performance through first-principles simulations and machine learning. Education: MSc in Physical Chemistry (Nankai University, China) and PhD (TU/e, 2011) in computational materials design. Roles: Affiliated with Materials Simulation & Modelling (MSM) division, Computational Center for Energy Research (CCER), and Eindhoven Institute for Renewable Energy Systems (EIRES). Her work focuses on chiral-induced spin selectivity (CISS), spin electrochemistry (SEC), and quantum phenomena in halide, oxide, and nitride materials. Recent publications analyze temperature-dependent chirality in perovskites, circular dichroism modeling, and band gap engineering for optoelectronic applications. Scientific awards include: 2024 NWO Open Competition M Grant 2024 ERC Consolidator Grant 2023 Aspasia Award 2022 NWO VIDI 2019 NWO START-UP 2016 CSER Tenure Track Fellowship She serves as Associate Editor for AI for Science (IOP Publishing) and on editorial boards of Applied Physics Letters . Her group collaborates with national and international research communities in Nano, Quantum, and Materials Physics.

• Theoretical Chemistry
• Computational Chemistry
• Quantum Chemistry
• +7 more

Frank Neese is the Director and Managing Director (since 2024) of the Max-Planck-Institut für Kohlenforschung in Mülheim an der Ruhr, Germany, where he leads the Department of Molecular Theory and Spectroscopy. He holds honorary professorships at the University of Bonn (since 2013) and the University of Duisburg-Essen (since 2020), reflecting his strong academic affiliations. His research program bridges theoretical chemistry, quantum mechanics, and spectroscopy with applications in bioinorganic and materials chemistry. Education: Diploma in Biology, University of Konstanz (1993) Ph.D. (Dr. rer. nat.), University of Konstanz (1997) Postdoctoral Research, Stanford University (1997–1999) Habilitation, Universität Konstanz (2001) Frank Neese's research focuses on the development and application of advanced quantum chemical methods for understanding molecular electronic structures, particularly in transition metal complexes and metalloenzymes. His work emphasizes spectroscopic simulations (EPR, XAS, MCD, etc.) and reaction mechanisms in catalysis. He is renowned as the lead developer of the ORCA quantum chemistry software, a widely used tool in computational chemistry. His theoretical frameworks integrate density functional theory, wavefunction-based methods, and multiscale modeling to achieve high accuracy in predicting chemical properties. The 15 most recent publications highlight a consistent trajectory in electronic structure theory, with strong emphasis on spectroscopy, transition metal chemistry, and method development. Key themes include double-hybrid functionals, spin-state energetics, spin-orbit coupling, and QM/MM modeling of biological systems. The interdisciplinary nature of his work spans chemistry, biochemistry, and materials science, often targeting challenges in catalysis and energy conversion. Scientific Awards: Gottfried Wilhelm Leibniz Prize (2023) Humboldt Research Award ISACS Award Fellow of the Royal Society of Chemistry Member of the North Rhine-Westphalian Academy of Sciences Member of the Leopoldina Neese has secured extensive third-party funding for his research, enabling a large, interdisciplinary team of scientists and students. He actively mentors PhD and postdoctoral researchers, fostering the next generation of theoretical chemists. His leadership extends to official functions in scientific societies and editorial roles in major chemistry journals. The ORCA development team, which he heads, is a central hub for innovation in computational chemistry software. He leads a vibrant research group focused on method development and applications in molecular spectroscopy and reactivity. The team collaborates internationally and organizes the ORCA User Meeting, fostering a global community of users and developers in quantum chemistry.

Nicole A. BenedekView profile

Associate Professor

• Materials Theory
• Computational Materials Science
• Complex Oxides
• +9 more

Nicole A. Benedek is an Associate Professor in the Department of Materials Science and Engineering at Cornell University, part of the College of Engineering. Her research group focuses on theoretical and computational approaches to understanding and designing functional materials, particularly complex oxides and perovskites. She integrates principles of crystal chemistry, symmetry, and density functional theory to uncover mechanisms underlying material properties and to guide the discovery of new materials with targeted functionalities. Her research interests include nonlinear phononics, ultrafast optical control of lattice dynamics, ferroelectricity, magnetism, and thermal transport in materials. She is particularly interested in how materials behave out of equilibrium and how external stimuli such as light can induce dramatic changes in their properties. This work has implications for low-power electronics, data storage, and dynamic optical devices. The recent publications from her group reflect a strong trend in controlling material symmetries and properties using light, especially through infrared and Raman resonant excitation. Her work bridges theory and experiment, often in collaboration with synthetic chemists, to validate predictions and discover new polar and multiferroic materials. She has made key contributions to understanding negative thermal expansion, light-induced phase transitions, and hybrid improper ferroelectricity. Scientific Awards: NSF CAREER Award, National Science Foundation (2015) Ralph E. Powe Junior Faculty Enhancement Award (2014) Journal of Materials Chemistry Emerging Investigator (2016) Australian Postgraduate Award (2003) Dr. Benedek advises graduate students in materials science and engineering and has mentored PhD candidates such as Ethan T. Ritz and Tucker Swenson. Her research is supported by the National Science Foundation (including the MRSEC program), the Department of Energy, and the Cornell Center for Materials Research. She leads the Benedek Group, which develops theoretical frameworks to explain and predict material behavior, emphasizing design rules for next-generation functional materials. The Benedek Group collaborates extensively with experimentalists, notably with Michael A. Hayward at Oxford University, to synthesize and characterize predicted materials. Their joint work has led to the discovery of new ferroelectric Dion-Jacobson phases and a deeper understanding of polar distortions in layered perovskites. The group combines computational modeling with physical insight to push the boundaries of materials design.

Andrew HamiltonView profile

Associate Professor

• Additive Manufacturing
• Materials Science
• Mechanical Characterization
• +4 more

Dr. Andrew Hamilton is an Associate Professor at the University of Southampton specializing in materials science and engineering with a focus on additive manufacturing and advanced materials characterization. His research spans multiple disciplines including mechanical engineering, biomedical applications, and advanced manufacturing techniques. His primary research interests include: Development and mechanical characterization of novel materials for structural and multifunctional applications Additive manufacturing (AM) of metamaterials with controlled porous architectures Characterization of porous materials including effects of anisotropy and heterogeneity Failure analysis of AM metals and bimaterial metal joints Layer-by-layer (LbL) assembly of multilayer coatings for biocompatibility and antimicrobial activity Dr. Hamilton's recent publications demonstrate a strong focus on applying additive manufacturing techniques to solve complex engineering challenges across multiple domains. His work spans from fundamental materials characterization to applied biomedical and aerospace applications, with particular emphasis on advanced composite materials, structural health monitoring, biomedical applications of 3D printing, failure mechanisms in power generation components, novel coating technologies, and optimization of AM processes. As an active PhD supervisor, he currently mentors nine doctoral students and has previously supervised successful candidates. His collaborative approach is evident through his membership in multiple research groups including the Engineering Materials and Surface Engineering Group, Bioengineering Group, Institute for Life Sciences, and Interdisciplinary Musculoskeletal Health. Dr. Hamilton has led significant research projects including those funded by EPSRC and the European Union, with current work focused on high-temperature failure processes in Ni base superalloys. His interdisciplinary research bridges traditional disciplinary boundaries to address complex materials challenges with innovative solutions across aerospace, biomedical engineering, and advanced manufacturing sectors.

Susanna M. ThonView profile

Associate Professor

• Renewable energy conversion and storage
• Photovoltaics
• Optoelectronics
• +4 more

Susanna M. Thon is an Associate Professor of Electrical and Computer Engineering at Johns Hopkins University and a Marshal Salant Faculty Scholar. She serves as Associate Director of the Ralph O’Connor Sustainable Energy Institute (ROSEI) and is affiliated with the Data Science and AI Institute. Education: B.Sc. in Physics (MIT, 2005), M.Sc. and Ph.D. in Physics (UC Santa Barbara, 2008, 2010) Postdoctoral Fellow (University of Toronto) Her research focuses on nanostructured materials and devices for renewable energy and optoelectronics, particularly solar energy conversion and sensing. Key projects include plasmonic-photocatalytic systems using aluminum nanoparticles, colloidal quantum dots for multicolored/transparent solar cells, and machine learning-driven solar cell optimization. Funding: National Science Foundation, American Chemical Society, Maryland Energy Innovation Institute, U.S. Army, Cohen Translational Engineering Fund Professional Memberships: American Chemical Society, American Physical Society, IEEE, Optica, Materials Research Society, Association for Women in Science Her team has published over 50 peer-reviewed papers and actively mentors students like Kyle, Jill, Sreyas, Ekin, Ariel, Delancy, Joseph, Sasha, and Kevin, who have presented at Design Day and published in journals like Coordination Chemistry Reviews and Optics Express. Scientific awards include the Johns Hopkins Catalyst Award, Discovery Award, and WSE Excellence in Mentoring Award.

Trevor F. MoraesView profile

Assistant Professor

• Structural Biology of Membrane Proteins
• Bacterial Pathogenesis
• Iron and Heme Acquisition Mechanisms
• +4 more

Dr. Trevor F. Moraes is an Assistant Professor in the Department of Biochemistry at the University of Toronto, holding a Tier II Canada Research Chair in Structural Biology of Membrane Proteins (2012-2022). His research focuses on structural and functional characterization of bacterial membrane protein complexes involved in pathogenesis, nutrient uptake, and CRISPR-Cas inhibition. Structural Biology of Membrane Proteins Vaccine Development Against Gram-Negative Pathogens CRISPR-Cas9 Inhibition Mechanisms Nutrient Acquisition Systems (Iron, Heme, Phosphate) Dr. Moraes employs X-ray crystallography and molecular approaches to study these systems. His lab has identified key proteins like Slam, critical for bacterial virulence and vaccine targets. Awards include the Early Researcher Award (2014-2018) and CRC Tier II. Structural characterization of transferrin-binding protein B (TbpB) CRISPR-Cas9 anti-activator proteins Slam-dependent surface lipoprotein translocation In teaching, Dr. Moraes leads courses like BCH 2101H (Scientific Skills) and JBB2025H (Protein Crystallography). His lab collaborates with teams such as the Gray-Owen and Pomès labs, contributing to structural biology advancements in bacterial pathogenesis.

Lisa FredinView profile

Associate Professor

• Theoretical and Computational Chemistry
• Electronic Structure
• Disorder in Materials
• +4 more

Lisa Fredin is an Associate Professor in the Department of Chemistry at Lehigh University , with research spanning theoretical and computational chemistry , electronic structure , disorder in materials , photoredox catalysis , and nanochemistry . Her work bridges experiment and theory , focusing on density functional theory (DFT) and quantum chemistry to model catalytic materials , charge transport , and excited-state dynamics in systems ranging from transition-metal complexes to oxide nanoparticles . Education: Ph.D. in Chemistry (Northwestern University, 2012), B.S. in Chemistry, Biochemistry, Applied Mathematics (UT Austin, 2007) Previous Appointments: Postdoctoral Researcher at Lund University (2012–2014), Research Associate at NIST (2015–2018) Her research explores: Disorder in Inorganic and Organic Materials: Modeling defects , doping , and dynamic molecular vibrations to understand their impact on electronic properties and device performance . Photophysics of Light-Harvesting Complexes: Studying Fe(II) , Ru(II) , and Pd(II) complexes to optimize charge separation , excited-state lifetimes , and photocatalytic efficiency . Surface and Nanoscale Reactivity: Predicting reactivity of oxide nanoparticles and metal surfaces for CO disproportionation , water oxidation , and photoredox reactions . Her recent publications highlight TD-DFT applications, Boltzmann transport in organic materials, and defect engineering in TiO2 and SrTiO3 . She has received the Sloan Research Fellowship (2024) and ACS-PHYS Postdoctoral Award (2016) . Prof. Fredin mentors 6 graduate students and 15 undergraduates , teaches Physical Chemistry and Quantum Chemistry , and leads the Fredin Group , which develops computational tools for materials discovery.

Timothy S. WolfeView profile

Assistant Professor

• Electrical Engineering
• High Power Electronics
• Directed Energy
• +5 more

Major Timothy S. Wolfe is an Assistant Professor of Electrical Engineering at the Air Force Institute of Technology (AFIT), Wright-Patterson AFB, OH, within the Graduate School of Engineering and Management. He holds a PhD in Electrical Engineering from Purdue University (2021), a Master’s from AFIT (2015), and a Bachelor’s from Boston University (2011). Commissioned in 2011 via AFROTC, his career spans technical intelligence, program management, and research leadership at AFRL. BS, Electrical Engineering – Boston University, 2011 MS, Electrical Engineering – Air Force Institute of Technology, 2015 PhD, Electrical Engineering – Purdue University, 2021 His research focuses on atomistic modeling of high-power electronic materials , directed energy systems , and wide bandgap semiconductor devices , particularly photoconductive switches used in pulsed power and RF applications. His work integrates computational physics with engineering design to enhance device performance and reliability. The recent publications show a strong trend in computational modeling of semiconductor materials and high-power switching systems, emphasizing reliability, waveguide effects, and optoelectronic integration. These works span journals like IEEE Transactions on Plasma Science and Modelling and Simulation in Materials Science and Engineering , highlighting interdisciplinary research bridging materials science, electromagnetics, and power electronics. His scientific recognition includes: GSEM’s Academic Year 2022/2023 Dean’s Distinguished Teaching Professors 2023 AFA Wright Memorial Chapter Gage H. Crocker Outstanding Professor Award Maj Wolfe actively contributes to engineering education and research at AFIT, likely advising students through thesis projects and research collaborations. His work is supported by Air Force research initiatives, particularly in directed energy and high-power electronics, though specific grants are not detailed. He is an active member of the IEEE Dayton Chapter and the Eta Kappa Nu honor society, reflecting professional engagement. His research is conducted within AFIT’s engineering research infrastructure, likely in collaboration with the Air Force Research Laboratory (AFRL) Directed Energy Directorate, where he previously served as Deputy High Power Electromagnetics Core Tech Lead. This suggests integration with larger DoD efforts in directed energy and high-power systems.

Dominik MunzView profile

Professor

• Coordination Chemistry
• Inorganic Chemistry
• Organic Chemistry
• +14 more

Prof. Dr. Dominik Munz is a Professor of Coordination Chemistry at the Faculty of Natural Sciences and Technology, Saarland University , Germany. He leads an interdisciplinary research group at the interface of inorganic, organic, and physical chemistry, focusing on creative solutions for catalysis, energy conversion, and functional materials. Education: Ph.D. from TU Dresden (implied by 'alma mater' reference). Research Interests: The Munz group is driven by the pursuit of novel chemical bonding and unusual electronic structures. Their primary research areas are: Bond Activation for Catalysis: Designing new transition- and main-group metal complexes with innovative bonding motifs to activate strong bonds and facilitate energy conversion. Optoelectronic Materials: Investigating radicaloid systems for applications in solar cells and microelectronics. Reactive Intermediates as Molecular Switches: Exploring transient, highly reactive species for use in soft and intelligent materials. Their synthetic work is guided by computational predictions and employs advanced spectroscopic techniques under inert conditions. Publication Trends: The group's recent publications (2023-2025) demonstrate a strong focus on pushing the boundaries of main-group and transition-metal chemistry. Key themes include the synthesis of highly unusual species like terminal gold(I) imides and lead(II)-substituted triplet carbenes, the discovery of powerful new reagents from simple oxidations (e.g., PPh3), and the exploration of high- and low-valent states of metals (e.g., FeVII, Al(I)). Their work frequently appears in top-tier journals like JACS , Nature , and Angewandte Chemie , highlighting its significance and impact. Scientific Awards: European Research Council (ERC) Starting Grant Advising and Grants: Prof. Munz actively mentors a large group of students and postdoctoral researchers, as evidenced by numerous publications led by his advisees. His research is supported by significant competitive grants, including the ERC Starting Grant and a DFG-funded Research Training Group (RTG Ec=m²), which is hiring 10 new PhD scholars. This indicates a robust research program focused on 'Engineering Covalent Bonds in Molecules and Materials.' Laboratories and Research Groups: The Munz group operates state-of-the-art laboratories at Saarland University, equipped with brand-new gloveboxes for air-sensitive chemistry. The group is a key part of the 'PharmaScienceHub,' a collaborative initiative between Saarland University and the Helmholtz Institute for Pharmaceutical Research. They are also involved in the Skilizium, a research meeting with groups from Saarland, Marburg, and Münster. The group fosters a dynamic environment, engaging in outreach activities like hosting high school students and organizing scientific meetings such as the Fulbright-Cottrell Meeting on Science Communication.

Hans-Joachim GrafeView profile

Researcher

• Nuclear Magnetic Resonance
• High Temperature Superconductivity
• Quantum Magnetism
• +3 more

Dr. Hans-Joachim Grafe is a group leader at the Institute for Solid State Research within the Leibniz Institute for Solid State- and Materials Research (IFW Dresden) in Germany. His research focuses on Nuclear Magnetic Resonance (NMR) studies of quantum materials, particularly investigating high temperature superconductors and quantum magnets. Dr. Grafe completed his diploma thesis at TU Braunschweig on NMR measurements of Sr 14 Cu 24 O 41 under the guidance of Hans-Henning Klauß. He then pursued his PhD at IFW Dresden and TU Dresden, working with Bernd Büchner and Nicholas Curro at Los Alamos National Laboratory on NMR studies of rare earth co-doped lanthanum cuprates. His research interests span Nuclear Magnetic Resonance spectroscopy, high temperature superconductivity, quantum magnetism, and the development of novel NMR instrumentation. Dr. Grafe has made significant contributions to understanding the electronic and magnetic properties of unconventional superconductors using NMR techniques. Recently, he has been involved in developing self-assembled rolled-up microcoils for NMR on nanoliter-sized samples, expanding the capabilities of NMR spectroscopy for studying minute quantities of materials. Analysis of Dr. Grafe's recent publications (2021-2025) reveals a strong focus on applying NMR techniques to investigate quantum magnetic systems, high-temperature superconductors, and novel instrumentation development. His work spans condensed matter physics, materials science, and NMR methodology, with particular emphasis on frustrated magnets, iron-based superconductors, and innovative approaches to enhance NMR sensitivity for nanoscale applications. Dr. Grafe has presented his research at numerous international conferences and seminars, including the Mitteldeutsches Resonanztreffen, Analytica, and various university seminars across Europe. His invited talks often focus on NMR applications in quantum materials and recent advances in NMR instrumentation.

• Superconductivity
• Mesoscopic Phenomena
• Quantum Electronics
• +3 more

Prof. Vladimir Krasnov is a leading researcher in Experimental Condensed Matter Physics at Stockholm University , focusing on mesoscopic superconductivity, Josephson junctions, and nanoscale quantum phenomena. He heads the Experimental Condensed Matter Physics Group since 2005. Department: Department of Physics Lab: EKMF Lab (SU-KTH collaboration) Key Methodologies: Pulsed laser deposition, FIB nanofabrication, cryogenic measurements (0.25-300 K), THz spectroscopy Research Themes: His work bridges fundamental superconductivity studies (high-Tc cuprates, iron-pnictides) with applied quantum electronics. Notable contributions include Developing vortex-based cryogenic memory Controllable spin-triplet supercurrents in magnetic junctions THz emission from intrinsic Josephson stacks Quantum phase transitions via electrical doping Magnetic field effects on mesoscopic systems Scientific Trends: Analysis of 15 recent publications reveals strong emphasis on Josephson vortex dynamics, superconducting/ferromagnetic hybrid systems, THz applications, and non-equilibrium phenomena in quantum circuits. Facilities: Utilizes Nano-Fab clean-room for sample engineering and Low-T lab for high-field (17T), cryogenic experiments.