جست‌وجوی استاد و پژوهشگر

Egemen Kolemenمشاهده پروفایل

دانشیار

• Fusion Energy
• Plasma Physics
• Control Systems
• +۳ مورد دیگر

Egemen Kolemen is an Associate Professor at Princeton University’s Mechanical & Aerospace Engineering Department, with joint appointments at the Andlinger Center for Energy and the Environment and the Princeton Plasma Physics Laboratory (PPPL). He serves as Director of the Program in Sustainable Energy and holds the distinction of ITER Scientist Fellow. His research focuses on enabling economically feasible fusion reactors through engineering and physics analysis, with a strong emphasis on machine learning, real-time diagnostics, and control systems. Dr. Kolemen earned his B.S. from Bogazici University (2002) and Ph.D. from Princeton University (2008). His research integrates advanced computational tools like DESC and FreeMHD with experimental collaborations at KSTAR, NSTX-U, and DIII-D tokamaks. He leads labs developing liquid metal divertors and low-temperature plasma diagnostics, while also advancing software for stellarator optimization and fusion reactor economics. His work bridges plasma physics and control systems, addressing challenges like tearing mode stabilization, edge localized mode (ELM) control, and AI-driven plasma profile prediction. Recent trends in his publications highlight breakthroughs in hybrid physics-AI models for fusion reactor design and real-time plasma diagnostics. Awards: David J. Rose Excellence in Fusion Engineering Award, American Nuclear Society’s Technical Accomplishment Award. Grants/Advising: Oversees research groups and collaborates with international fusion facilities, focusing on long-pulse edge plasma control and liquid metal applications. Labs/Teams: Director of liquid metal divertor and plasma diagnostics labs, co-developer of the DESC computational framework.

• Structural Engineering
• Cold-Formed Steel Structures
• Aluminium Alloy Structures
• +۵ مورد دیگر

Associate Professor Cao Hung Pham is a faculty member at the School of Civil Engineering, University of Sydney, specializing in Structural Engineering. His research focuses on the behavior and design of thin-walled structures, particularly cold-formed steel and aluminium alloys, with emphasis on stability, shear performance, and connection mechanics. Education: BE MConstMgt MEngSc PhD Research Interests: His work explores fundamental and applied aspects of structural systems, including buckling phenomena in thin-walled members under combined loading, development of Direct Strength Method (DSM) design approaches, experimental characterization of high-strength materials, and innovation in fastener technologies for lightweight construction. Research integrates laboratory testing, computational modeling, and theoretical analysis to advance design standards. Publication Trends: Recent articles (2021-2023) demonstrate strong focus on shear design innovations in perforated cold-formed steel sections, performance optimization of power-actuated fasteners, buckling behavior of aluminium alloy beams, and methodological improvements in structural testing. Work frequently combines experimental validation with analytical/numerical solutions to develop practical design guidelines. Advising and Projects: Actively supervises PhD candidates researching: Cold-formed steel members with web holes under shear AI-assisted welding quality control Screwed connections in floor systems DSM enhancements for localized loading Serviceability of cold-formed steel floors Laboratories and Teams: Member of the Structures Research Group and Materials and Structures research theme, focusing on experimental mechanics and advanced structural systems at the University of Sydney's civil engineering facilities.

• Optical near field spectroscopy
• Carbon nanotubes
• Graphene
• +۵ مورد دیگر

Prof. Janina Maultzsch is a Professor at the Institute of Solid State Physics (IFKP) at Technische Universität Berlin, affiliated with Faculty II - Mathematics and Natural Sciences. Her research focuses on nanomaterial characterization using advanced spectroscopic techniques such as Raman combined with scanning probe methods (AFM/STM/TERS), specifically targeting carbon nanotubes, graphene, and biomolecules. She has pioneered studies on molecular encapsulation in nanotubes and vibrational properties of 2D materials. Her ERC Starting Grant (2010) supported investigations into carbon nanotube and graphene characterization. Key collaborations include work with Prof. Christian Thomsen's group. She leads the Maultzsch Research Group at TU Berlin, with a lab focusing on near-field optical spectroscopy and nano-optoelectronics. Contact: janina@physik.tu-berlin.de . Recent research highlights include: TERS analysis of nanotube bundle dynamics Optical properties of functionalized nanomaterials First-principles modeling of graphene nanoribbon behavior Biophysical studies of photosystem II crystals Publications span influential journals like Chemical Physics, Physica Status Solidi B, and Physical Review B, with a focus on interdisciplinary nanoscience.

• Quantum Physics
• Nanotechnology
• Condensed Matter Physics
• +۳ مورد دیگر

Dr. Fritz Schulze-Wischeler serves as a researcher and manager in the Laboratory of Nano and Quantum Engineering (LNQE) at Leibniz University Hannover, part of the Faculty of Mathematics and Physics. His roles include managing LNQE, advising on nanotechnology programs, and representing technical staff in university committees such as the Research Commission and QUEST Leibniz Research School. He is affiliated with the PhoenixD Cluster of Excellence, focusing on photonics and engineering innovation. His research interests center on quantum phenomena in condensed matter systems, particularly the fractional quantum Hall effect, composite fermions, and phonon interactions in two-dimensional electron systems. He has contributed to experimental studies on specific heat measurements, phonon spectroscopy, and non-equilibrium dynamics in quantum Hall systems. Schulze-Wischeler advises students in nanotechnology programs and oversees academic and administrative committees, including curriculum development and admissions for nanotechnology courses. His work integrates experimental physics with theoretical models to advance understanding of quantum materials and nanoscale systems.

Benjamin Bériمشاهده پروفایل

استاد

• Topological Phases
• Condensed Matter Theory
• Quantum Information
• +۳ مورد دیگر

Professor Benjamin Béri is a faculty member in the Cavendish Laboratory (Department of Physics) at the University of Cambridge, holding the position of Professor of Theoretical Physics. His research group operates within the Theory of Condensed Matter (TCM) Group at the Ray Dolby Centre, JJ Thomson Avenue, Cambridge. Béri's research centers on topological phases of quantum matter, where collective behavior of particles produces nonlocal order characterized by topological invariants rather than conventional parameters. His work explores systems ranging from solid-state electron devices to ultracold atomic gases, with emphasis on phenomena like impurity-immune conducting boundaries and exotic quasiparticles for quantum information processing. Key areas include Majorana fermions, topological quantum computing, and non-equilibrium dynamics in many-body systems. Recent publications reveal a pronounced focus on topological quantum error correction (surface codes, Floquet codes), Sachdev-Ye-Kitaev model applications, and braiding protocols for Majorana zero modes. His group demonstrates consistent innovation in connecting abstract topological concepts to experimental quantum computing architectures, particularly through studies of delocalization effects and dynamical phase transitions. Professor Béri leads an active research team comprising postdoctoral fellows Dr. Jan Behrends and Dr. Jack Kemp, alongside research students Mircea Bejan, Vedant Motamarri, Cory Aitchison, and Campbell McLauchlan within the TCM Group's framework.

Roger Mongمشاهده پروفایل

دانشیار

• Topological Phases
• Quantum Simulation
• Condensed Matter Physics
• +۳ مورد دیگر

Roger Mong is an Associate Professor in the Department of Physics & Astronomy at the University of Pittsburgh's Dietrich School of Arts and Sciences. His research focuses on topological phases of matter, quantum simulation techniques, and quantum computing. He holds an NSF CAREER Award (2019) and has contributed to advancements in understanding topological insulators, fractional quantum Hall systems, and tensor network methods for simulating quantum systems. His work bridges theoretical condensed matter physics and quantum information science, with key contributions to topological order characterization, error-correcting quantum codes, and the development of novel quantum simulation platforms. Mong has also explored the interplay between symmetry, topology, and quantum dynamics in systems such as superconducting heterostructures and Rydberg atom arrays. Key Research Themes: Topological phases and their nonlocal invariants Tensor networks for higher-dimensional quantum simulations Quantum error correction via topological codes Quantum Hall edge states and thermalization dynamics Awards: NSF CAREER Award (2019) Advising: Mentor for graduate students in theoretical condensed matter physics. His research group actively collaborates on experimental efforts to realize topological materials and scalable quantum architectures, with a focus on advancing both fundamental theory and applied technologies.

Victor Shriraمشاهده پروفایل

استاد

• Nonlinear Waves
• Physical Oceanography
• Fluid Dynamics
• +۵ مورد دیگر

Victor Shrira is a Professor of Applied Mathematics at Keele University, part of the School of Computer Science and Mathematics. He holds a PhD from the P.P. Shirshov Institute of Oceanology, Russian Academy of Sciences, and has held academic positions at University College Cork and the Shirshov Institute. His research focuses on nonlinear waves, physical oceanography, and fluid dynamics, with emphasis on wave instabilities, remote sensing, and turbulence. He has contributed extensively to understanding wave-current interactions, Langmuir circulations, and statistical descriptions of random wave fields. Education: MSc in Physics (1975, N.-Novgorod University, Russia) PhD in Nonlinear Internal Waves in the Ocean (1980, P.P. Shirshov Institute) Research Interests: Dr. Shrira’s work spans nonlinear wave dynamics, including 3D wave patterns, Hamiltonian systems, and remote sensing techniques. He investigates ocean surface processes, internal waves, and turbulence, with applications to boundary layer dynamics and cross-interface fluxes. His recent studies explore dispersive shock mechanisms and extreme wave events. Advising & Grants: While specific grant details are not listed, his prolific publication record indicates sustained research activity. No advisees are explicitly mentioned in the text. Labs/Teams: Affiliated with Keele’s Fluid Dynamics and Acoustics research group. Collaborations include international projects on meteotsunamis and wave turbulence.

• Industrial Process Control
• Machine Learning Applications
• Fault Detection and Diagnosis
• +۴ مورد دیگر

Weimin Zhong is a Professor in the Department of Automation at East China University of Science and Technology's School of Information Science and Engineering. With an extensive publication record spanning over two decades, Dr. Zhong specializes in applying advanced computational methods to industrial process control and optimization problems, particularly in chemical engineering contexts. Dr. Zhong's research interests focus on industrial process control , machine learning applications for fault diagnosis , and optimization of complex chemical processes . Their work bridges theoretical advancements in neural networks and multi-agent systems with practical industrial applications, particularly in refinery operations, emission control, and energy systems management. The research demonstrates a consistent trajectory toward more sophisticated integration of data-driven approaches with traditional process engineering. Analysis of recent publications reveals a strong trend toward applying cutting-edge deep learning techniques to industrial challenges, with particular emphasis on fault diagnosis under uncertainty, multi-objective optimization of energy systems, and transfer learning approaches for cross-domain prediction. The work frequently appears in top-tier journals including IEEE Transactions on Industrial Informatics, Computers & Chemical Engineering, and Neurocomputing. Dr. Zhong maintains an active collaborative research program, primarily with colleagues at East China University of Science and Technology, including frequent co-authorship with Xin Peng, Feng Qian, and Dayu Tan. The research group has secured substantial funding for projects related to industrial AI applications, process optimization, and smart manufacturing systems, though specific grant details aren't provided in the available information.

Yuri Kivsharمشاهده پروفایل

استاد

• nonlinear physics
• nonlinear photonics
• physics of metamaterials
• +۷ مورد دیگر

Yuri Kivshar is a Distinguished Professor in the Department of Materials Physics at The Australian National University (ANU) in Canberra, Australia, where he leads the Nonlinear Physics Centre (NLPC). Recognized as one of the world's leading experts in nonlinear physics and nanophotonics, he has established himself as a pioneer in metamaterials research and all-dielectric metaphotonics. Professor Kivshar's research spans multiple cutting-edge areas in modern photonics, with particular emphasis on nonlinear optical phenomena, bound states in the continuum, topological photonics, and chiral light-matter interactions. His work bridges fundamental physics with practical applications, developing novel optical devices for imaging, sensing, and quantum technologies. The NLPC under his leadership maintains both theoretical and experimental programs that are internationally recognized for their innovation and impact. His research portfolio demonstrates a clear evolution from fundamental nonlinear optics toward advanced nanophotonic structures and metamaterials, with recent work focusing on bound states in the continuum, topological photonics, and nonlinear effects at the nanoscale. This progression reflects both the maturation of the field and Kivshar's ability to identify and develop emerging research directions. Humboldt Research Award (2017) Two consecutive Federation Fellowships from the Australian Research Council Listed as one of the 'Most Cited Scientists in Physics' (ISI: h-index 91 with over 35,000 citations) Author of 5 influential books and over 80 papers in Physical Review Letters and 15 in Nature-family journals Through his leadership and research funding, including ARC Discovery and Linkage grants, Professor Kivshar established world-leading theoretical and experimental capabilities at the NLPC. His team has developed major experimental infrastructure including ultrafast laser systems, scanning near-field optical microscopes with sub-100nm resolution, and specialized facilities for nanofabrication. The NLPC actively collaborates with numerous international research groups and hosts visiting researchers from around the world, fostering a dynamic research environment that bridges theory and experiment. The Nonlinear Physics Centre operates as a comprehensive research hub with strong theoretical foundations complemented by cutting-edge experimental capabilities. The center maintains specialized laboratories for nonlinear optics, nanophotonics, and metamaterials research, featuring state-of-the-art equipment for fabrication, characterization, and theoretical modeling. This integrated approach has enabled groundbreaking discoveries including the first generation of Airy plasmons, observation of vortices in liquid crystals, and development of novel out-of-plane metamaterials.

• High Energy Theory
• Theoretical Physics
• Quantum Gravity
• +۳ مورد دیگر

Pierre Heidmann is an Assistant Professor in the Department of Physics at The Ohio State University. His research focuses on High Energy Theory, particularly exploring black hole microstates, topological solitons, and gravitational phenomena in AdS spaces. He holds a PhD in Physics from the Institut de Physique Théorique (IPhT) CEA Saclay (2019), an MS from École Normale Supérieure de Lyon and Paris, and a BS from École Normale Supérieure de Lyon. His research interests include non-extremal black hole microstates, topological stars as horizonless alternatives to black holes, and the interplay between string theory and gravitational physics. He investigates geometric resolutions of black hole horizons, quasinormal mode spectra, and solitonic excitations in anti-de Sitter spaces. His work bridges theoretical formalism with observational implications, exploring electromagnetic entrapment mechanisms and imaging techniques for topological solitons. Recent studies highlight his contributions to understanding entropy calculations via the Strominger-Vafa formula, cavity effects in topological star spectra, and the stability of AdS localized black holes under entropy constraints. His 2022 paper 'The Uplifton' explores phase transitions in black string to bubble geometries, while 2023 work addresses holographic entanglement and soliton dynamics. He has pioneered methods for visualizing microstructures behind black hole shadows through imaging techniques. No scientific awards are explicitly mentioned in the provided texts. His research portfolio includes over 30 peer-reviewed articles since 2014, covering topics from loop quantum gravity to non-invasive imaging techniques. He maintains an active presence in theoretical physics communities, contributing to both foundational theory and cutting-edge observational interpretations.

Yuan-Ming Luمشاهده پروفایل

استاد

• Condensed Matter Theory
• Topological Phases
• Quantum Spin Liquids
• +۷ مورد دیگر

Yuan-Ming Lu is a **Professor of Physics** at **The Ohio State University (OSU)**, where he leads a theoretical condensed matter physics group. His research focuses on **topological phases of matter**, **quantum spin liquids**, and **strongly correlated systems**, combining analytical and numerical methods. He holds visiting professorships at the **Yukawa Institute for Theoretical Physics (Kyoto University)** and the **Institute for Solid State Physics (University of Tokyo)**. Lu earned his PhD in Physics from **Boston College (2011)** and BSc from **Tsinghua University (2007)**. His work is funded by the **National Science Foundation (NSF)** and the **Center for Emergent Materials (CEM)**. Key research areas include topological magnons, symmetry-enriched topological (SET) orders, and quantum phase transitions. His group explores material realizations of topological phases and their experimental signatures, with recent highlights in high-throughput materials discovery and magnon classification. Lu advises graduate students and collaborates with experimental groups, such as the **Vidya Madhavan Lab (UIUC)**. Education : PhD, Physics, Boston College, 2011 (Advised by Ziqiang Wang) BSc, Tsinghua University, 2007 Research Interests : Topological phases (magnons, crystalline materials, superconductors) Quantum spin liquids and fractionalization Symmetry constraints on topology (LSM theorems) Entanglement in topological orders His articles explore topics like **magnon topology in honeycomb Kitaev magnets**, **anyon condensation-driven phase transitions**, and **symmetry-enforced chiral hinge states**. Recent work emphasizes **high-throughput discovery of topological materials** and **ultrafast laser-driven dynamics**. Lu’s lab includes postdocs and students working on **topological bootstrap mechanisms**, **quantum criticality**, and **gapped boundary theories** of topological orders. Grants & Collaborations : NSF-funded projects on Floquet topological states and CEM-supported research on emergent materials. Cross-disciplinary collaborations with mathematicians (e.g., Dave Penneys) and experimentalists (e.g., Vidya Madhavan) drive theoretical-experimental synergy. Labs/Teams : The Lu Group at OSU focuses on computational and theoretical tools for classifying topological phases, with emphasis on **magneto-Raman spectroscopy signatures** and **entanglement entropy diagnostics**.

Yihang Zengمشاهده پروفایل

استادیار

• Quantum Electronics
• 2D Materials
• Strongly Correlated Systems
• +۳ مورد دیگر

Yihang Zeng is an Assistant Professor of Physics and Astronomy at Purdue University, leading the Zeng Lab focused on quantum properties in two-dimensional (2D) materials. His research combines nanodevice fabrication with low-temperature electrical/optical characterization to explore phenomena like strong electronic correlations and topological states. Education: B.S. in Physics, Peking University (2011–2015) Ph.D. in Physics, Columbia University (2015–2021) Research Interests: The Zeng Lab designs 2D heterostructures (via 'Lego-like' stacking) and uses advanced tools like polarization-resolved SHG and cryogenic optical systems to study quantum effects. Key goals include discovering new physics and enabling quantum technologies like quantum computing. The lab is part of Purdue’s Birck Nanotechnology Center for fabrication resources. Lab Facilities: The lab includes a fabrication suite with plasma etchers, laser lithography, and an AFM, alongside a renovated measurement lab projected for completion in 2025. Recent milestones include functional 2D devices and Jo’s Rolf Scharenberg Fellowship (2025).

• Plasma Physics
• Magnetic Fusion
• Tokamak Research
• +۴ مورد دیگر

Pascale Hennequin is a CNRS Research Director (DR1) at the Plasma Physics Laboratory (LPP) of the Polytechnic School. She leads the Magnetic Fusion Plasmas group and specializes in turbulence and transport phenomena in tokamak-based magnetic fusion research. Her work focuses on turbulence diagnostics, scaling laws, and comparisons with gyro-kinetic simulations. Turbulence and transport in tokamaks (ASDEX Upgrade, TCV, JET) Wave scattering diagnostics (IR laser/microwave) Isotope effect and universality of spectra Her recent publications highlight turbulence dynamics, transport barriers, and experimental-theoretical comparisons. She has participated in European collaborations and received international recognition, including the Helmholtz International Fellow Award (2017). Scientific Awards : Journal Prize 'La Recherche' (2006) Helmholtz International Fellow Award (2017) Hennerquin's collective responsibilities include coordinating the Magnetic Confinement Fusion Research Federation (FR3029) and serving on the Max Planck Institute's Scientific Council. She is actively involved in EUROfusion projects and mentorship activities.

Claudio Chamonمشاهده پروفایل

استاد

• Condensed Matter Physics
• Topological Materials
• Quantum Computing
• +۳ مورد دیگر

Claudio Chamon is a Professor at Boston University, specializing in condensed matter physics and quantum computing. His research focuses on electron fractionalization in topological systems, quantum spin liquids, and fractonic behavior. He holds a Ph.D. in Theoretical Physics from MIT, along with M.S. and B.S. degrees in Electrical Engineering and Aeronautics/Astronautics, also from MIT. His work bridges theoretical and experimental condensed matter physics, with contributions to topological materials, quantum phase transitions, and quantum information science. Key research areas include topology-driven fractionalization in graphene-like structures, non-Abelian gauge theories, and quantum computing applications such as encrypted operator computing. Chamon has pioneered studies on Majorana zero modes in nanowire networks and braiding non-Abelian anyons in photonic systems. His experimental collaborations aim to realize topological qubits and quantum spin liquids in programmable devices. He has received prestigious awards including the American Physical Society Fellowship, Alfred P. Sloan Fellowship, and NSF CAREER Award. Chamon’s recent work explores quantum circuit complexity, fracton dynamics, and secure computation on encrypted data, leveraging tensor networks and combinatorial symmetries.

• Quantum Physics
• Quantum Information
• Quantum Metrology
• +۳ مورد دیگر

Dr. Matteo Fadel is a Lecturer in the Department of Physics at ETH Zürich, affiliated with the Professur Hybride Quantensysteme (Hybrid Quantum Systems Group). His research focuses on quantum physics, quantum information, and quantum metrology, with particular emphasis on mechanical systems, Bose-Einstein condensates, and spin squeezing phenomena. Fadel explores theoretical and experimental aspects of macroscopic quantum coherence, entanglement dynamics, and quantum gravitational effects. He has contributed to developing protocols for detecting non-locality and Bell correlations in many-body systems, as well as advancing quantum teleportation and remote state preparation techniques. Research Interests : Quantum non-Gaussianity, entanglement quantification, precision measurement, topological quantum systems, and gravity-related quantum effects. His work bridges theoretical studies with experimental implementations, such as parity measurements in circuit quantum acoustodynamics and spin squeezing in atomic ensembles. Fadel’s contributions span both foundational quantum theory and applied quantum technologies, including novel approaches to distributed quantum sensing and metrological complementarity. While no specific grants or awards are listed in the text, his publications reflect sustained engagement with cutting-edge topics in quantum physics. Advising details and lab affiliations are not explicitly provided, but his research group likely focuses on hybrid quantum systems and their applications in sensing and computation. His research also touches on machine learning for bosonic functionals and the quantum marginal problem in many-body systems.