جست‌وجوی استاد و پژوهشگر

• Nanophotonics
• Plasmonics
• Metamaterials
• +۳ مورد دیگر

Francisco José García Vidal is a Full Professor in the Department of Theoretical Condensed Matter Physics at the Autonomous University of Madrid and a core member of IFIMAC (Institute of Advanced Materials Physics of the Community of Madrid). His distinguished career spans over 25 years since returning from a postdoctoral position at Imperial College London in 1996. Professor García Vidal's research focuses on Nanophotonics, Plasmonics, and Metamaterials , with significant theoretical contributions to understanding light-matter interactions at the nanoscale. His work bridges fundamental quantum phenomena with practical applications in quantum technologies and nanoscale optoelectronics. The exceptional impact of his research program was recognized with Spain's prestigious Blas Cabrera National Prize in 2021. His publication record demonstrates extraordinary scholarly impact: 274 peer-reviewed articles Over 26,000 citations (Web of Science) H-index of 77 Average of 96+ citations per article Included in Clarivate's compilation of most influential researchers Professor García Vidal has supervised 14 PhD theses since 2004, reflecting his commitment to training the next generation of physicists. His research program maintains active investigation into quantum aspects of light-matter interactions, with recent publications focusing on polaritonic systems, quantum transport phenomena, and nanoscale energy conversion mechanisms. The international recognition of his work continues to grow, cementing his position as a leading theoretical physicist in Spain and globally.

• Quantum Transport
• Spintronics
• Topological Materials
• +۵ مورد دیگر

Stephan Roche is an ICREA Research Professor and Group Leader at the Institut Català de Nanociència i Nanotecnologia (ICN2), specializing in Theoretical and Computational Nanoscience. His research bridges fundamental physics with potential applications in next-generation electronics and quantum technologies. Primary Affiliation: Institut Català de Nanociència i Nanotecnologia (ICN2) Research Position: ICREA Research Professor Research Group: Theoretical and Computational Nanoscience Professor Roche's research focuses on quantum transport phenomena in nanoscale systems, particularly two-dimensional materials and van der Waals heterostructures. His work combines advanced computational techniques including first-principles calculations, quantum transport simulations, and analysis of topological properties. Key research areas include spintronics, graphene-based systems, topological materials, and quantum effects in disordered systems. His recent work has made significant contributions to understanding spin-orbit torques, quantum transport in twisted bilayer graphene, and topological phases in disordered systems. Analysis of his recent publications (2020-2025) reveals a strong focus on emerging phenomena in 2D materials, with particular emphasis on spin transport mechanisms, topological properties, and quantum effects. His work often combines theoretical modeling with practical implications for next-generation electronic and spintronic devices. The interdisciplinary nature of his research spans condensed matter physics, materials science, and quantum information. Key Research Themes: Quantum transport, Spintronics, Topological materials, 2D materials, Computational nanoscience Methodologies: First-principles calculations, Quantum transport simulations, Machine learning for materials Professor Roche maintains extensive international collaborations, with co-authors from institutions across Europe, Asia, and North America. His research group provides opportunities for students and postdocs interested in computational approaches to nanoscale physics and materials science. The group's work has significant implications for the development of next-generation electronic devices, quantum technologies, and advanced materials.

Bogdan OSTAHIEمشاهده پروفایل

پژوهشگر

• Topological Quantum Systems
• Quantum Transport Theory
• Condensed Matter Physics
• +۳ مورد دیگر

Bogdan OSTAHIE is a Scientific Researcher III at the National Institute of Materials Physics (NIMP), Romania, affiliated with the Laboratory of Theoretical Physics and Computational Modeling. His primary research focuses on topological quantum phenomena in condensed matter systems. Education: PhD in Theoretical Physics, University of Bucharest (2018) Master Degree in Condensed Matter Physics, University of Bucharest (2010-2012) Graduate studies, Faculty of Physics, University of Bucharest (2007-2010) OSTAHIE's research centers on quantum transport in topological and low-dimensional quantum structures. His work spans Floquet topological insulators, non-Hermitian quantum systems, edge state engineering, and quantum Hall phenomena. He employs analytical and numerical methods to study spectral properties, transport characteristics, and topological phase transitions in systems ranging from 2D lattices to heterostructures. His recent work demonstrates how symmetry breaking, disorder, and external fields manipulate topological states for potential quantum device applications. Analysis of his publications reveals three dominant research thrusts: (1) Floquet engineering of topological phases (2023-2025), particularly second-order corner states and light-induced topological transitions; (2) Non-Hermitian extensions of topological systems (2021-2022), exploring exceptional points and chiral disorder effects; (3) Foundational work on graphene and phosphorene topological systems (2014-2018), establishing edge state mechanisms for quantum Hall effects. His publications consistently bridge theoretical predictions with experimental signatures like quantum transport measurements. Scientific Recognition: Radu Grigorovici Prize of the Romanian Academy (2016) OSTAHIE leads the project 'Edge states manifestation in non-Hermitian topological systems' (PD-type, 2020-2022), demonstrating active grant funding. His collaborations span international institutions including University of Granada (Spain) and Budapest University of Technology (Hungary). While no formal students are listed, his work appears in premier journals like Physical Review B and New Journal of Physics, indicating significant contributions to theoretical condensed matter physics. His laboratory focuses on computational modeling of quantum structures using tight-binding approaches and non-Hermitian quantum transport formalisms.

Viorel DINUمشاهده پروفایل

پژوهشگر

• Theoretical Physics
• Many-Body Systems
• Non-equilibrium Systems
• +۳ مورد دیگر

Dr. Viorel DINU serves as a Scientific Researcher III at the National Institute of Materials Physics (NIMP) in Magurele, Romania, where he has maintained continuous research activity since 2001 within the Laboratory of Theoretical Physics and Computational Modeling. His institutional affiliation represents a dedicated career trajectory in materials physics research at Romania's premier materials science institute. His academic foundation includes a Ph.D. in Physics from Bucharest University (2010), preceded by an M.Sc. (2002) and B.S. (2000) in Physics from the same institution. His international research experience features a Marie Curie Actions Early Stage Researcher fellowship at the Institute of Molecular Physics, Polish Academy of Sciences (2006). Ph.D. in Physics, Bucharest University, 2010 Marie Curie Actions Early Stage Researcher, Institute of Molecular Physics Polish Academy of Sciences, 2006 M.Sc. in Physics, Bucharest University, 2002 B.S. in Physics, Bucharest University, 2000 Dr. DINU's research program centers on theoretical investigations of interacting many-particle systems under equilibrium and non-equilibrium conditions, with significant contributions to modeling conduction mechanisms in semiconducting metal oxide (SMOX) gas sensors. His methodological approach integrates quantum transport theory , disorder physics , and computational modeling using specialized tools including Wolfram Mathematica and Python-based scientific environments. His 2004 publications reveal foundational work in two-dimensional electron systems, demonstrating expertise in magnetic field effects on quantum localization and spin polarization phenomena. These studies establish his research trajectory through Landau level physics , Anderson disorder modeling , and correlated electron gas behavior in confined geometries. His distinguished recognition includes the highly competitive Marie Curie Actions Early Stage Researcher Fellowship. Marie Curie Actions Early Stage Researcher Fellowship (2006) While explicit details of student supervision remain undocumented, his sustained research output since 2001 indicates active participation in scientific collaboration and potential mentorship within NIMP's research ecosystem. His grant history prominently features the Marie Curie fellowship as a cornerstone international research opportunity. As a core member of NIMP's Laboratory of Theoretical Physics and Computational Modeling, Dr. DINU contributes to Romania's national materials research infrastructure through advanced computational physics methodologies applied to semiconductor sensor development and fundamental condensed matter problems.

• Statistical Physics
• Two-dimensional Physics
• Colloidal Systems
• +۵ مورد دیگر

Peter Keim is a Professor and Group Leader in Experimental Statistical Physics at the Max Planck Institute for Dynamics and Self-Organization, with a representative professorship at Heinrich-Heine-University of Düsseldorf since spring 2024. His research focuses on structure formation, self-organization, and spontaneous symmetry breaking in low-dimensional systems, particularly using colloidal ensembles to study fundamental phenomena in statistical physics. Dr. Keim completed his physics studies in Frankfurt/Main and Konstanz, earning his doctorate in 2005. He conducted postdoctoral research at Farl-Franzens University in Graz, Austria with a stipend from the German Research Foundation. He returned to Lake Constance to lead a junior research group, completed his habilitation and venia legendi in experimental physics in 2015, and was accepted into the prestigious Heisenberg program of the German Research Foundation in 2021. Keim's research primarily investigates two-dimensional physical systems, with emphasis on the KTHNY theory of 2D melting, the Kibble-Zurek mechanism for defect formation during rapid cooling, and Mermin-Wagner fluctuations in low-dimensional systems. His experimental work with colloidal monolayers has provided crucial evidence supporting theoretical predictions, including work highlighted by Nobel laureate Michael Kosterlitz in his Nobel Lecture. His approach bridges fundamental statistical physics with experimental validation in soft matter systems. His publication record demonstrates consistent contributions to understanding phase transitions, symmetry breaking, and glass formation in two-dimensional systems. Recent work extends into photonic structures, tetratic phases, and ultrafast symmetry breaking phenomena, showing the evolution of his research from fundamental 2D melting studies toward broader applications in amorphous and structured materials. Gustav-Hertz Prize of the German Physical Society (2016) for investigation of phase transitions far from thermal equilibrium Heisenberg Fellow of the German Research Foundation (2021) Keim has mentored numerous doctoral students and postdoctoral researchers who have become independent scientists in their fields. His research has been consistently supported by the German Research Foundation, culminating in his Heisenberg Fellowship. His experimental group maintains specialized equipment for studying colloidal systems under controlled conditions, including magnetic field manipulation and high-resolution microscopy capabilities for observing particle dynamics at the microscopic level.

Joe Paddisonمشاهده پروفایل

پژوهشگر

• Quantum Materials
• Neutron Scattering
• Magnetism
• +۵ مورد دیگر

Joe Paddison is a Neutron Scattering Scientist and Computational Instrument Scientist at Oak Ridge National Laboratory, where he has been working since 2024. Previously, he served as a Distinguished Staff Fellow & R&D Associate at Oak Ridge National Laboratory (2019-2024), Junior Research Fellow at Churchill College, University of Cambridge, UK (2016-2019), and Postdoctoral Fellow at Georgia Institute of Technology, USA (2015-2016) under Prof. Martin Mourigal. His educational background includes a DPhil (PhD) in Inorganic Chemistry from the University of Oxford, UK (2011-2015), advised by Prof. Andrew Goodwin and Dr. Ross Stewart, and an MChem in Chemistry from the University of Oxford, UK (2007-2011). Dr. Paddison's research focuses on understanding quantum materials where disorder of atoms and magnetic moments generates unconventional states of matter. He employs scattering experiments and atomistic modeling techniques to study material structures at the nanoscale. His work centers in the Neutron Diffraction section as part of the Basic Energy Sciences project 'Understanding Quantum Matter Beyond the Unit Cell.' He is the author of software packages Spinteract, Spinvert, and Scatty for modeling scattering data from spin liquids and disordered materials. His publication record shows a consistent trajectory in quantum magnetism, with recent work focusing on spin liquids, skyrmion materials, and Kagome metals appearing in high-impact journals including Nature, Science, Physical Review Letters, and npj Quantum Materials. His research demonstrates increasing sophistication in both experimental techniques and computational modeling approaches. BTM Willis Prize (2021) European Physical Society Early Career Prize (2017) Dr. Paddison actively mentors early-career researchers at Oak Ridge National Laboratory and collaborates extensively with academic institutions worldwide. His current work leverages major user facilities including the High Flux Isotope Reactor and the Spallation Neutron Source, positioning him at the forefront of neutron scattering research for quantum materials. He leads the development of computational approaches to analyze complex magnetic structures, with his software tools becoming increasingly adopted by the neutron scattering community. His current research directions include advancing methods for studying topological spin textures and developing new approaches for analyzing disordered quantum materials.