Quantum Many-Body Localization Professors and Supervisors

Urs Aeberhardمشاهده پروفایل

مدرس

ETH ZurichSwitzerland

Dr. Urs Aeberhard is a Lecturer at the Department of Information Technology and Electrical Engineering at ETH Zurich and a Senior R&D Scientist at Fluxim AG . He earned his Master and PhD in Theoretical Physics from ETH Zurich in 2004 and 2008 respectively, with thesis work on quantum-kinetic theory of quantum well solar cells conducted at the Condensed Matter Theory Group at Paul Scherrer Institut and ETH Zurich . He previously held a postdoctoral researcher position at the Institute of Photovoltaics , Forschungszentrum Jülich from 2009-2012 and was a visiting research scholar at the National Renewable Energy Lab in 2013 . From 2013-2018 , he worked as a tenured staff scientist at IEK-5 Photovoltaik , Forschungszentrum Jülich , where he founded and led the Multiscale Simulation research group. His research focuses on quantum transport formalisms (particularly NEGF ) for photovoltaic device simulation , including charge carrier generation , recombination in nanostructures , and advanced solar cell concepts such as hot-carrier cells , multi-junction architectures , and photon recycling . He has contributed extensively to multiscale modeling of quantum well , wire , and dot solar cells , and his work spans quantum kinetic theory , optoelectronic device simulation , and computational investigation of defect-mediated recombination and non-equilibrium processes in semiconductor nanostructures . His recent publications emphasize hot-carrier filtering in InAs-InP nanowires , terawatt-scale photovoltaic optics , reverse-bias breakdown in all-perovskite tandem modules , and photon recycling effects in ultra-thin and perovskite-based solar cells. He has presented extensively at international conferences on topics including quantum transport with light-matter interaction , multi-scale simulation of non-idealities in tandem photovoltaics , and computational characterization of passivated contacts in silicon solar cells . Dr. Aeberhard is the developer of PVnegf , a tool for non-equilibrium Green's function simulation of quantum photovoltaic devices , which provides first-principles analysis of electronic structure , photocarrier transport , and optical processes in nanoscale solar cells . The framework enables microscopic simulation of quantum wells , wires , and dots for advanced photovoltaic applications .

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Karen Kheruntsyanمشاهده پروفایل

استاد

University of QueenslandAustralia

Karen Kheruntsyan is Professor of Theoretical Physics at the University of Queensland's School of Mathematics and Physics. With a career spanning over 25 years at UQ, he progressed from postdoctoral researcher to full professor, holding key roles including ARC Future Fellow and Chief Investigator in the ARC Centre of Excellence for Quantum-Atom Optics. His research explores fundamental quantum phenomena in ultracold matter, with current focus on quantum thermodynamics, hydrodynamic modeling of quantum gases, and macroscopic quantum entanglement. Professor Kheruntsyan's research interests center on: Quantum thermodynamics of nanoscale heat engines Stochastic hydrodynamic approaches to non-equilibrium quantum dynamics Emergent phenomena in mesoscopic quantum transport Bell inequality tests with ultracold atomic systems His work bridges theoretical physics with experimental quantum science, particularly in atomic Bose-Einstein condensates and degenerate Fermi gases. His recent publications demonstrate strong focus on quantum thermodynamics (50% of 2020-2025 papers) and hydrodynamic modeling of 1D quantum gases (30%), with applications in quantum engine design, entanglement verification, and non-equilibrium dynamics. The research consistently combines mathematical rigor with experimental testability, featuring high-impact results in Physical Review Letters and Nature-family journals. Professor Kheruntsyan actively mentors graduate researchers, with current projects including quantum hydrodynamics and ultracold gas thermodynamics. He has secured continuous ARC funding since 2003, including Discovery Projects and Fellowships totaling over $3M. His laboratory activities involve theoretical and computational work, with strong ties to experimental quantum gas groups worldwide.

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Jonathan Simonمشاهده پروفایل

دانشیار

Stanford UniversityUnited States

Jonathan Simon is an Associate Professor of Physics and Applied Physics at Stanford University, where he leads the Simon Lab. His research spans the interface of condensed matter physics and quantum optics, with a particular focus on creating and studying quantum materials from light. Simon received his PhD from Caltech and previously held positions at the University of Chicago's James Franck Institute before joining Stanford. His work bridges theoretical concepts with experimental innovation, developing novel techniques to explore quantum phenomena. Department of Physics, School of Humanities and Sciences Department of Applied Physics, School of Engineering Former faculty at University of Chicago, James Franck Institute Simon's research explores three interconnected themes: building materials from light to understand fundamental material properties; investigating small quantum systems where coherent interactions produce emergent behaviors; and examining topological aspects of matter where 'hidden' non-local order affects material properties. His lab develops cutting-edge experimental platforms including small waist cavity arrays, cavity Rydberg polaritons, and systems for topological photonics. Recent publications reveal a strong focus on quantum optical technologies, photonic materials, and topological phenomena. The lab has made significant advances in cavity QED, quantum microscopy, and quantum transduction, with multiple high-impact publications each year in top physics journals. Simon's lab actively trains the next generation of quantum scientists, with numerous graduate students and postdocs contributing to publications and developing innovative technologies. His students have gone on to prestigious fellowships and positions in academia and industry. The Simon Lab maintains strong funding support for its research program, enabling the development of sophisticated experimental apparatus and supporting a vibrant research group. Current projects include exploring quantum Hall physics with light, developing new quantum imaging technologies, and creating platforms for quantum information processing. The lab operates state-of-the-art facilities for quantum optics research, including multiple laser systems, high-finesse optical cavities, and custom electronics for quantum control. Recent technical innovations include the development of a Mega-FPS low light camera and advanced cavity array microscopes for quantum manipulation.

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Pietro Brighiمشاهده پروفایل

پژوهشگر

University of ViennaAustria

Pietro Brighi is a Researcher at the Faculty of Physics , focusing on Quantum Optics, Quantum Nanophysics, and Quantum Information . His work bridges theoretical quantum mechanics with computational methods, particularly in non-Hermitian systems , tensor networks , and many-body localization . He collaborates with institutions globally on quantum matter research. Current Projects (2023-2027): Non-reciprocal many-body systems with tensor networks (ongoing, 2025-2027) Novel phases of quantum matter in driven kinetically constrained models (completed, 2023-2024) Research Trends: Recent articles highlight quantum many-body dynamics , non-Hermitian skin effects , and anomalous transport in constrained models. His work explores spin-glass phases , localization stability , and non-equilibrium phenomena using tensor networks and quench dynamics. Scientific Activities: Participates in major conferences like the APS Global Physics Summit 2025 and workshops on many-body open quantum systems . He presents research as poster sessions and oral talks , emphasizing collaborations in quantum information and non-Hermitian physics .

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Kade Head-Marsdenمشاهده پروفایل

استادیار

University of Minnesota Twin CitiesUnited States

Kade Head-Marsden is an Assistant Professor in the Department of Chemistry at the University of Minnesota's College of Science and Engineering. The Head-Marsden Group conducts interdisciplinary research at the intersection of quantum physics, chemistry, and computer science, focusing on elucidating electronic structure properties and open quantum system dynamics relevant to emerging quantum materials and technologies. Research interests span multiple interconnected domains: Classical method development for open quantum system dynamics in Markovian and non-Markovian regimes Quantum algorithm development for chemical applications on noisy-intermediate scale quantum computers Electronic structure characterization of correlated molecular systems Applications in quantum materials, molecular energy transport, and quantum information science The research output shows consistent growth with multiple publications in high-impact journals including Physical Review Research, Chemical Reviews, and Journal of Chemical Physics. Recent work demonstrates expertise in stabilizing quantum system properties, modeling decoherence dynamics, and developing quantum algorithms for chemical applications. Awards and recognitions include: Scialog Fellow in Quantum Matter and Information Professor Head-Marsden actively mentors students at multiple levels, including graduate students, REU participants, and undergraduates. The research group hosts seminars and participates in major conferences, indicating strong engagement with the scientific community. Current funding supports multiple graduate students and summer research programs through UMN's MRSEC and Lando programs. The Head-Marsden Group maintains a research focus on both theoretical development and practical applications, with work spanning from fundamental quantum dynamics to algorithm implementation for near-term quantum hardware.

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Romain Duboscqمشاهده پروفایل

مدرس

Gebze Technical University (GTU)Turkey

Romain Duboscq is a Lecturer at the National Institute of Applied Sciences (INSA) in Toulouse and a member of the Institute of Mathematics of Toulouse (IMT). He is affiliated with Paul Sabatier University (University Toulouse III) as evidenced by his contact information at the Toulouse Institute of Mathematics. His research spans several interconnected areas in mathematical physics: Analysis and numerical simulation of partial differential equations related to quantum mechanics Numerical methods for Gross-Pitaevskii type equations in Bose-Einstein condensates Stochastic Schrödinger equations and their numerical approximation Cauchy problem for stochastic Gross-Pitaevskii equations Stochastic regularization effects and the Itô-Tanaka trick Minimization of quantum entropies under local constraints Duboscq has developed the GPELab toolbox, a free-access Matlab resource for solving Gross-Pitaevskii equations, in collaboration with Xavier Antoine. His research often addresses challenging cases with strong nonlinearity and fast rotation in quantum systems. His work demonstrates a consistent integration of theoretical analysis with practical computational methods, making contributions to both fundamental understanding and applied methodology in quantum mechanical systems. His publication record shows sustained productivity across prestigious journals including Journal of Mathematical Physics, Annales Henri Lebesgue, and ESAIM: Mathematical Modelling and Numerical Analysis. The recent publications (2022-2025) demonstrate continued engagement with multiple research threads, particularly in quantum PDEs, stochastic methods, and computational approaches to quantum systems. Duboscq has received recognition through numerous publications in high-impact journals: Multiple publications in Annales Henri Lebesgue (2022) Work published in Journal of Mathematical Physics (2022) Contributions to ESAIM: Mathematical Modelling and Numerical Analysis (2025) Publications in Annals of Probability (2025) Research in Journal of Functional Analysis (2021) Duboscq maintains active research collaborations with several prominent researchers including Xavier Antoine, Christophe Besse, Renaud Marty, Anthony Réveillac, and Olivier Pinaud. His GPELab toolbox represents a significant contribution to computational tools for quantum physics research. While specific student supervision details aren't provided in the available information, his numerous collaborations suggest an active mentoring role in the research community. Duboscq leads the GPELab research group, which focuses on developing numerical methods and computational tools for quantum mechanical systems, particularly Bose-Einstein condensates modeled by Gross-Pitaevskii equations. The group's work bridges theoretical mathematics with practical computational applications, providing resources that enable more accurate simulations of complex quantum phenomena.

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Bogdan OSTAHIEمشاهده پروفایل

پژوهشگر

National Institute of Materials PhysicsRomania

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.

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Viorel DINUمشاهده پروفایل

پژوهشگر

National Institute of Materials PhysicsRomania

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.

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Panagiotis Toliasمشاهده پروفایل

پژوهشگر

KTH Royal Institute of TechnologySweden

Panagiotis Tolias is a Researcher at KTH Royal Institute of Technology working in the Division of Space and Plasma Physics. His research focuses on theoretical plasma physics with direct applications to fusion energy research, particularly for ITER and DEMO reactors. He holds a doctoral degree from KTH with a thesis on complex plasma systems. Dr. Tolias specializes in the statistical mechanics of charged systems, with research interests spanning non-ideal plasmas (strongly coupled, dusty, complex, quantum), magnetic confinement fusion, plasma surface interactions (electron emission, stopping powers, energy deposition), classical liquids (stable, metastable, glasses), surface & interfacial forces, and warm dense matter. His work has significant implications for future fusion reactors, with specific focus on dust transport, macroscopic melt motion, emissive sheaths in dense magnetized plasmas, and dust adhesion and remobilization in tokamaks. While primarily theoretical and modeling-focused, he has also designed multiple experiments conducted on major fusion devices and the International Space Station. His publication record demonstrates expertise across plasma physics, statistical mechanics, and computational methods. The research trends show consistent focus on warm dense matter, quantum plasmas, and plasma-wall interactions with increasing emphasis on computational approaches like path integral Monte Carlo simulations. His work bridges fundamental theoretical physics with practical fusion energy applications. Dr. Tolias teaches Applied Plasma Physics (EF2270) and has been involved in numerous collaborative research projects with major fusion facilities worldwide. His work contributes significantly to understanding plasma-material interactions critical for the success of future fusion reactors.

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Cyril Branciardمشاهده پروفایل

پژوهشگر

Néel InstituteFrance

Cyril Branciard is a Permanent Researcher at CNRS (French National Center for Scientific Research) working at the Institut Néel in Grenoble, France. He is affiliated with the PLUM (Physics – Light – Material) department and is a member of the Nanophysics and Semiconductors (NPSC) research team. His office is located in room C3-212 and he can be reached at cyril.branciard@neel.cnrs.fr. Branciard completed his PhD in 2009 at the University of Geneva under the supervision of Prof. Nicolas Gisin. His doctoral thesis was titled "Practical and Fundamental issues on Quantum Correlations." Dr. Branciard's research focuses on theoretical aspects of quantum information science and quantum foundations. His work primarily investigates quantum correlations, non-locality, Bell inequalities, quantum causality, and indefinite causal orders. He has made significant contributions to understanding the status of the wave function, generalized probabilistic theories, uncertainty principles, and quantum cryptography. His research often involves experimental demonstrations using quantum optics frameworks. His publication record demonstrates a consistent focus on causal structures in quantum mechanics, with recent work examining network-device-independent certification of causal nonseparability, quantum metrology with indefinite causal orders, and estimation of quantum properties using randomized measurements. His research shows a progression from foundational questions about quantum nonlocality to more applied aspects of quantum information processing. Branciard has established a strong collaborative network, frequently working with researchers such as Alastair A. Abbott, Julian Wechs, Nicolas Brunner, and Benoît Vermersch. His work appears in top physics journals including Physical Review Letters, Nature Communications, and Quantum.

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Michael Mayleمشاهده پروفایل

استاد پژوهشی

Nuremberg Institute of Technology Georg Simon OhmGermany

Michael Mayle is a Research Professor for Applied Computational Physics at Nuremberg University of Applied Sciences. He serves as a member of the Doctoral Center for Physical and Biomedical Engineering (CPaB) and holds a deputy position on the CPaB doctoral committee. His office is located at space KA.434, with contact details including phone +49 (0)911 5880-1309 and email michael.mayle@th-nuernberg.de. His research centers on Computational Physics with specialized focus in Sensor Technologies , Ultracold Quantum Gases , and Acoustics . He leads the Computational Physics for Sensor Technologies research group, developing advanced computational models for physical systems with direct applications in sensor design and analysis. His work bridges theoretical physics with practical engineering solutions. Analysis of his publication trajectory (2006-2025) reveals a distinct evolution from fundamental quantum research to applied sensor technology. Early work (2006-2013) established expertise in ultracold molecules and Rydberg atom physics, while recent publications (2019-2025) demonstrate a strategic pivot toward industrial applications including piezoelectric material analysis, ultrasonic flow metering, and water consumption pattern recognition. Professor Mayle actively contributes to doctoral education through the CPaB framework and teaches core courses including Simulation of Physical Systems (Continuum Mechanics) for M-AMP, Physics (Oscillations and Waves) for B-MED, and Building Physics for B-EGT/B-BI programs. His research group maintains strong industry connections through sensor technology development and applied computational modeling projects.

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Michael Noelمشاهده پروفایل

استاد

Bryn Mawr CollegeUnited States

Michael Noel serves as the Marion Reilly Professor of Physics at Bryn Mawr College, where he has been a faculty member since 2000 after completing postdoctoral research at the University of Virginia under Professor Thomas F. Gallagher. His academic background includes: B.S. from Whitworth College (1988) Ph.D. in Optics from the University of Rochester (1996), supervised by Professor Carlos R. Stroud, Jr., with dissertation research on "Atomic Electron Wave Packet Interference and Control" Professor Noel's experimental research investigates ultracold Rydberg atoms to engineer "designer solids" exhibiting strong dipole-dipole interactions. These systems model spin glasses and crystals relevant to condensed matter physics, while exploring resonant energy transfer mechanisms with applications in quantum computing through entanglement generation. His methodology employs optical lattices, inhomogeneous fields, and localized excitations to manipulate many-body dynamics in amorphous atomic samples. Current research is supported by the National Science Foundation (Collaborative Research: Quantum Dynamics and Control with Ultracold Rydberg Atoms #2011610).

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