Find Academic Supervisors

Leonardo P. G. De AssisView profile

Lecturer

• Theoretical Physics
• Quantum Computing
• Quantum Information
• +9 more

Leonardo P. G. De Assis is a Lecturer at the School of Liberal Studies, San Francisco State University, and an instructor at Stanford Pre-Collegiate Studies. He holds a bachelor's degree in Mathematics from the Federal University of Rio de Janeiro and Master/PhD degrees in Physics from the Brazilian Center for Research in Physics. His interdisciplinary research spans theoretical physics, quantum computing, neurophysics, and artificial consciousness. He investigates the neural binding problem, seeking to model consciousness through quantum-like formalisms applied to cognition, neuroscience, and AI. His work bridges quantum field theory, cosmology, plasma physics, and cognitive science. De Assis has published extensively on quantum mechanics, nuclear physics, supersymmetric models, and consciousness theory. His recent articles explore quantum contextuality, temporal physics in human perception, and interdisciplinary approaches to neural binding disorders.

Timir DattaView profile

Professor

• Condensed Matter Physics
• Graphene and Dirac-Fermionic systems
• Superconductivity
• +6 more

Timir Datta is a Professor in the Department of Physics and Astronomy at the University of South Carolina, affiliated with the McCausland College of Arts and Sciences. He collaborates with Nobel Laureates, leads superconductivity research, and mentors at Benedict College, a minority institution. Research spans Dirac-Fermionic systems , superconductivity , phase change materials (PCM) , Arago Optics , and quantum transport . Key projects: mesoscale manipulation of superconductivity , charge-phonon decoupling in GST , geometric control of graphene bandgaps . Leadership: Team leader at 2019 American Physical Society meeting, session chair (Devices & Applications, Boston 2019). Advocacy: Founding member of College Diversity Committee, promotes outreach and interdisciplinary collaboration. Publications highlight trends in quantum hall effects , memristor physics , thermoelectric transport , and mesoscale engineering , with applications in materials science and electronics.

Guang BianView profile

Associate Professor

• Quantum Materials
• Condensed Matter Physics
• Topological Insulators
• +5 more

Guang Bian is an Associate Professor in the Department of Physics and Astronomy at the University of Missouri, part of the College of Arts and Science. His research focuses on atomically precise fabrication and spectroscopic characterization of low-dimensional quantum systems, novel electronic materials, and their physical properties. Key techniques include angle-resolved photoemission spectroscopy (ARPES), scanning tunneling microscopy (STM), and molecular beam epitaxy (MBE). He leads the Quantum Materials Research Group and developed the Missouri Integrated Nano-Analysis System (MINAS) platform. Education: Ph.D. in Physics from the University of Illinois at Urbana-Champaign. Research Interests: Exploration of quantum electronic materials, including growth mechanisms, electronic/magnetic structure, surface physics, and quantum size effects. Specific areas include Weyl semimetals, topological insulators, van der Waals heterostructures, and epitaxial thin films. His work bridges experimental and theoretical approaches to discover novel quantum phenomena. Awards: Chancellor’s Award (2024), Gordon and Betty Moore Foundation Experimental Physics Investigator Award (2023), President’s Award (2019), among others. His research is funded by prestigious grants including the Moore Foundation and university awards. Labs/Teams: MINAS experimental platform combining ARPES, MBE, and STM capabilities. Collaborations focus on advanced material synthesis and characterization for next-generation quantum technologies.

Aleksandr KrasnokView profile

Assistant Professor

• Quantum materials
• Functional Metadevices
• Quantum and optical sensors
• +2 more

Aleksandr Krasnok is an Assistant Professor at the Knight Foundation School of Computing and Information Sciences at Florida International University (FIU). His research focuses on quantum materials, functional metadevices, quantum and optical sensors, wireless power transfer, and anomalies in light scattering. He holds a Ph.D. in Photonics and Quantum Optics from ITMO University (2013), an M.S. in Quantum Optics from Far Eastern Federal University (2010), and completed a postdoc in Photonics at the University of Texas at Austin (2018). His work explores cutting-edge areas such as topological polaritons, embedded eigenstates, and non-Hermitian photonics. Key contributions include studies on localized magnetic plasmon skyrmions, van der Waals polaritons, and novel wireless power transfer mechanisms. Krasnok’s research bridges fundamental physics with applied technologies, aiming to advance quantum sensors, optical metamaterials, and energy-efficient systems. Recent projects include investigations into complex-frequency excitations, nonreciprocal scattering, and tunable phase-change metasurfaces. His work has been published in prestigious journals like Nature Communications , Nature , and Nature Nanotechnology . He collaborates with institutions worldwide and actively contributes to advancing nanophotonics and quantum engineering.

Abdelkader KaraView profile

Professor

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

Abdelkader Kara is a Professor in the Department of Physics at the University of Central Florida. He earned his Ph.D. in Condensed Matter Physics with Highest Honors from the Technical University of Lille and CEA Saclay, France. His research employs multi-scale computational approaches: First-principles DFT for surface properties and interatomic bonding Model potentials for temperature-dependent dynamics of complex systems Molecular dynamics for structural changes and atom manipulation via SPM Monte Carlo simulations for alloy segregation Development of interatomic potentials bridging ab initio and applied scales Recent publications focus on surface adsorption phenomena, 2D materials (phosphorene, silicene), machine learning applications in materials science, and catalytic surface design. Dr. Kara teaches undergraduate and graduate physics courses and mentors students in computational materials research. He maintains collaborations with experimental groups for validation of computational predictions and development of new characterization methodologies.

Tom HeitmannView profile

Research Professor

• Neutron Scattering
• Magnetism
• Superconductivity
• +3 more

Tom Heitmann is a Research Professor in the Department of Physics and Astronomy at the University of Missouri, affiliated with the MU Research Reactor (MURR). He holds a Ph.D. in Physics from the University of Wisconsin (2005), an M.A. in Physics from the same institution (2002), and a B.S. in Physics from Valparaiso University (2000). His research focuses on neutron scattering techniques to investigate novel magnetic states, ionic conduction in solids, and low-temperature physics. He utilizes MURR's neutron instruments—including a triple-axis spectrometer, diffractometers, and a neutron reflectometer—and collaborates with national facilities for advanced methods like quasielastic neutron spectroscopy. Key interests include quantum spin liquids, multiferroics, magnetocalorics, and materials with competing ground states. His articles span topics such as topological magnon bands, magnetic anisotropy in high-entropy oxides, and Li-ion dynamics in amorphous solids. He has contributed to understanding structural and magnetic properties of materials like MnBi2Te4 and SrMnSb2. No scientific awards are explicitly mentioned in the texts provided. Heitmann's work involves collaborations across disciplines, including materials science and condensed matter physics. His research infrastructure includes MURR facilities and national user facilities, emphasizing neutron-based experimental techniques. No grants or advising roles are detailed in the provided information.

Shao-Kai JianView profile

Assistant Professor

• Quantum Many-Body Physics
• Non-Equilibrium Physics
• Quantum Information Theory
• +4 more

Shao-Kai Jian is an Assistant Professor at Tulane University's School of Science and Engineering. His research explores quantum many-body systems, non-equilibrium physics, and quantum information theory through analytical and computational approaches. Research focuses on emergent quantum phenomena including entanglement dynamics, critical behavior in open quantum systems, and holographic principles connecting quantum gravity with field theories. Recent investigations examine measurement-induced phase transitions and quantum information protection in noisy environments. Publications demonstrate strong emphasis on theoretical frameworks for quantum criticality, topological states, and holographic duality. Analytical techniques span conformal field theory, quantum circuit models, and renormalization group methods applied to condensed matter and quantum gravity problems.

Jianwei SunView profile

Associate Professor

• Condensed Matter Physics
• Density Functional Theory
• Materials Science
• +2 more

Jianwei Sun is an Associate Professor at Tulane University's School of Science and Engineering, specializing in condensed matter theory and computational materials science. Research Focus: Develops and applies advanced density functional theory (DFT) methods to study quantum materials, including superconductors, topological states, and transition metal compounds. Pioneered SCAN meta-GGA functional for accurate material property predictions. Key Contributions: Created efficient density functionals achieving chemical accuracy for material stability; revealed electronic mechanisms in nickelate superconductors; resolved long-standing DFT limitations in simulating metal-metal bonding and self-interaction errors. Teaching: Leads graduate courses in Quantum Mechanics, Solid State Physics, and Atomic/Molecular Physics, integrating computational methodologies with theoretical frameworks.

Cecilia CormickView profile

Professor

• Quantum Optics
• Quantum Information
• Quantum Statistical Mechanics
• +3 more

Cecilia Cormick is a CONICET Independent Researcher (Argentina) and Full-time Professor at the University of the Republic (UdelaR), Uruguay. She holds positions at the Physics Institute of the Faculty of Engineering in Montevideo, affiliated with the Quantum and Atomic Physics Group. She also collaborates with the Cold Atoms and Ions Group in Buenos Aires. Her academic journey includes a PhD from the University of Buenos Aires (UBA), followed by postdoctoral research at Saarland University (Germany) and Ulm University (Germany). She returned to Argentina with a CONICET return fellowship, securing tenure and promotion to Professor at the National University of Córdoba before moving to UdelaR in 2024. Education: PhD in Physics, University of Buenos Aires (2009) Master's in Physics, University of Buenos Aires (2005) Research focuses on quantum optics, quantum information, trapped ions, and open quantum systems. Key interests include ion dynamics in optical cavities, composite boson systems, and quantum phase transitions. Recent work explores optomechanical transitions and noise-induced phenomena in trapped ion systems. Publications span leading journals like Physical Review Letters and New Journal of Physics, emphasizing experimental theory and numerical simulations. Collaborations include international groups in Germany, Austria, and the U.S., with a focus on quantum control and many-body systems. Professional activities include teaching at UBA and postdoctoral mentorship. Current research integrates theoretical modeling with experimental quantum technologies, targeting advancements in quantum simulation and precision measurements.

• Quantum Information Science
• Quantum Physics
• Non-Markovian Quantum Systems
• +3 more

Ting Yu is a Professor and Chair of the Department of Physics at the Charles V. Schaefer, Jr. School of Engineering and Science, Stevens Institute of Technology. She holds a PhD in Physics from Imperial College London (1997). Her research focuses on quantum information science, quantum physics, and quantum technology, particularly in non-Markovian dynamics, quantum entanglement, and quantum metrology. She has secured NSF and DARPA grants and serves on editorial boards for journals like Quantum Information and Entropy . Her work spans theoretical modeling of quantum systems, quantum feedback control, and quantum coherence dynamics. Education: PhD (1997), Physics, Imperial College London, UK Research Interests: Entanglement and decoherence in quantum nanodevices Continuous quantum measurement and feedback control Non-Markovian quantum open systems Quantum phase transitions and topological computation Grants: NSF Grant (2008–present): Theory of Quantum Dynamics of AMO Systems DARPA Grant (2009–present) Professional Contributions: Editorial roles: Quantum Information , Entropy , Scientific Reports Reviewer for NSF panels and funding agencies Member, American Physical Society (APS) and Optical Society of America (OSA) Key Publications: Her recent work includes studies on non-Markovian quantum trajectory methods, quantum synchronization protocols, and entanglement generation in optomechanical systems. She has contributed to foundational topics like quantum Fisher information and modular operators in supersymmetric systems.

Brent HarrisonView profile

Associate Professor

• Artificial Intelligence
• Machine Learning
• Autonomous Agents
• +2 more

Brent Harrison is an Associate Professor at the University of Kentucky's Pigman College of Engineering, focusing on artificial intelligence systems that interpret human communication and values. His research bridges machine learning, game design, and computational storytelling. Harrison's 2024-2025 publications demonstrate leadership in quantum computing algorithms, reinforcement learning frameworks, and AI ethics. His group develops novel methods for value alignment in autonomous systems, quantum fermion transformations, and inclusive AI certification protocols, frequently applying these advancements to gaming and simulation environments.

Brian SwingleView profile

Associate Professor

• Quantum Information
• Quantum Many-Body Systems
• Quantum Gravity
• +3 more

Brian Swingle is an Associate Professor of Physics at the Martin A. Fisher School of Physics, Brandeis University. He holds a PhD from MIT (2011) and specializes in quantum information theory, quantum many-body systems, and quantum gravity. His research explores the interplay between entanglement and spacetime geometry, including the emergence of gravity from quantum systems and efficient quantum simulation techniques. Swingle's work spans theoretical physics with a focus on holography, operator growth in chaotic systems, and measurement-induced phase transitions. He contributes to advancing tensor network methods and quantum error correction codes. His affiliations include the Brandeis physics department and collaborations in quantum gravity research. Recent projects address energy transport in quantum systems, complexity measures in holography, and applications of reinforcement learning to quantum code discovery. Though no specific prizes are listed, his contributions to quantum information and gravity are widely recognized in academic circles.

Lance De LongView profile

Professor

• Magnetic Materials
• Artificial Spin Ice
• Superconductivity
• +2 more

Lance De Long is Professor of Physics and Associate Director of the Center for Advanced Materials at the University of Kentucky. He earned his PhD from UC San Diego (1977) and has held positions at UVa, Argonne National Lab, and NSF. An APS Fellow, his research focuses on condensed matter physics and magnetic materials. His experimental work investigates artificial spin ice, superconductivity, thin-film magnetism, and quantum materials. Recent studies utilize X-ray orbital angular momentum techniques to resolve chiral orbital currents and antiferromagnetic configurations. De Long oversees labs in CP and ASTeCC buildings and has led federally funded projects including NSF and DoE grants. His team develops novel magnetic nanostructures and advanced characterization methods. APS Fellow (Division of Condensed Matter Physics)

Keh-Fei LiuView profile

Professor

• Lattice QCD
• Nuclear Physics
• Particle Physics
• +2 more

Keh-Fei Liu is Professor of Physics and APS Fellow at the University of Kentucky's Department of Physics and Astronomy. He directs research in theoretical nuclear and particle physics with specialization in lattice quantum chromodynamics (QCD). His research investigates fundamental aspects of quantum chromodynamics through four primary domains: Non-perturbative QCD calculations Hadron structure and properties Neutrino-nucleon interactions Finite-temperature QCD phenomena Publication analysis reveals extensive focus on lattice field theory applications, with recent methodological advances in fermion formulations and renormalization techniques. Significant contributions include nucleon structure calculations, precision tests of electroweak interactions, and theoretical frameworks for neutrino scattering experiments. Research consistently bridges theoretical development with computational physics implementations. Honors include recognition as an APS Fellow for distinguished contributions to theoretical nuclear physics. No student advisees are specifically documented. Laboratory affiliations include leadership roles in lattice QCD computational initiatives, though specific facilities are not detailed.

Alexander AbanovView profile

Professor

• Theoretical Condensed Matter Physics
• Strongly Correlated Electron Systems
• Topological Quantum Systems
• +3 more

Alexander Abanov is a Professor in the Department of Physics and Astronomy at Stony Brook University. His research focuses on theoretical condensed matter physics, particularly strongly correlated electron systems, topological quantum phenomena, and quantum hydrodynamics. He explores non-perturbative methods and the interplay between condensed matter physics and quantum field theory. Teaching roles include undergraduate and graduate courses such as Classical Mechanics, Electromagnetic Theory, and Mathematical Physics. He has taught extensively at Stony Brook, including specialized graduate seminars on topics like Quantum Magnetism and Topological Terms in Condensed Matter Physics. Beyond academia, he contributes to educational outreach through programs like SchoolNova and Krasnoyarsk Summer School, teaching mathematics and physics to children and gifted students. His research emphasizes fluid dynamics with quantum anomalies, hydrodynamic descriptions of quantum Hall systems, and topological effects in many-body systems. Recent work includes studies on chiral anomalies in fluids, Floquet topology, and hydrodynamic models with gauge anomalies. Abanov collaborates internationally, including at institutions like ITP, EPFL, and Princeton Summer School. No scientific awards are explicitly mentioned in the texts, but his contributions span over 50 peer-reviewed articles since 2000, addressing topics from Calogero-Sutherland models to quantum cognition applications. He has advised numerous graduate students through his teaching and research activities, though specific student names are not listed in the provided materials.