Find Academic Supervisors

Prof. Rob Timmermans is a Professor of Theoretical Physics and Vice-Dean for Education at the University of Groningen (UG). He is affiliated with the Faculty of Science and Engineering and the Precision Frontier — Van Swinderen Institute for Particle Physics and Gravity. His research focuses on theoretical particle physics, quantum mechanics, and precision measurements, particularly in electric dipole moment (EDM) searches using molecules like BaF. His work includes developing methods for molecular beam manipulation, phase-space analysis, and symmetry violation studies. He has contributed to collaborations such as NL-eEDM, advancing techniques for EDM detection and precision physics. Prof. Timmermans has received nominations for teaching awards, reflecting his commitment to education. Research highlights include studies on nucleon decay, antinucleon-nucleon interactions, and chiral effective field theory. His lab activities involve collaborations on laser-cooled molecules and trapping techniques. Prof. Timmermans’ articles often address fundamental physics questions, such as Lorentz violation in beta decay and parity violation in molecular systems. Awards: Nominated for Faculty Teaching Award 2014, Teacher of the Year 2014-15. Grants/Advising: Leads projects on EDM searches and particle physics, with active roles in international collaborations. Labs/Teams: Van Swinderen Institute, Precision Frontier group.

• Theoretical Particle Physics
• Quantum Mechanics
• Quantum Field Theory
• +3 more

Michael Knap is an Associate Professor of Collective Quantum Dynamics at the Technical University of Munich (TUM), within the Department of Physics at the TUM School of Natural Sciences. His research group focuses on condensed matter theory, quantum many-body systems, and quantum simulation. Knap holds office in room 5101.01.037 at James-Franck-Str. 1, 85748 Garching b. München, and can be reached at michael.knap@ph.tum.de or +49 (89) 289 - 53777. Prof. Knap's research delves into the rich physics of quantum many-body systems, particularly exploring non-equilibrium dynamics and transport phenomena in ultracold quantum gases, interacting light-matter systems, and correlated quantum materials. His work spans multiple subfields including topological phases of matter, quantum simulation with trapped ions, fracton physics, and quantum computation. He develops novel numerical approaches based on quantum information theory and utilizes artificial intelligence and machine learning to tackle challenging problems in condensed matter physics. His group's research connects fundamental theoretical questions with experimental implementations in quantum simulators. The analysis of Prof. Knap's recent publications (2023-2025) reveals a strong focus on topological quantum matter, quantum simulation, and emergent phenomena in constrained quantum systems. His work frequently bridges condensed matter theory with quantum information science, as evidenced by publications on fracton hydrodynamics, higher-form symmetries, and quantum error correction. There's a clear progression toward increasingly complex quantum systems and connections to experimental implementations on quantum processors. His research shows significant interdisciplinary reach, connecting condensed matter physics with quantum computing and quantum information theory. ERC Consolidator Grant (2025) ERC Starting Grant (2019) Supervisory Award, TUM Department of Physics (2018) Promotio sub auspiciis Praesidentis rei publicae, Austria (2013) Prof. Knap has established a robust research program supported by prestigious European Research Council grants. His group actively collaborates with both theoretical and experimental groups worldwide, particularly in the quantum simulation community. He has supervised numerous students through Master's Seminars on Collective Quantum Dynamics covering topics like quantum simulation with trapped ions and theoretical quantum computation. His research has received significant attention, with several publications featured as Editors' suggestions and Research Highlights in leading journals. The Collective Quantum Dynamics group maintains strong connections with experimental quantum simulation efforts, particularly in the areas of ultracold atoms and trapped ion systems. Knap's theoretical work often provides frameworks for interpreting experimental results in quantum simulators, creating a productive feedback loop between theory and experiment. His group participates in collaborative research networks focused on advancing quantum simulation capabilities and understanding fundamental aspects of quantum many-body physics.

• Condensed Matter Theory
• Quantum Many-Body Systems
• Non-Equilibrium Quantum Dynamics
• +5 more

Michael Peper is a Research Fellow at Princeton University's School of Engineering and Applied Science, working in the Engineering Quadrangle under the advisement of Jeff Thompson. His research focuses on atomic and quantum physics with direct applications to quantum computing. His research interests include: Rydberg states in ytterbium and their applications for quantum computing Quantum defect analysis and precision spectroscopy Neutral atom qubit arrays and coherent control mechanisms Long-range Rydberg molecules and their dynamic properties His publications demonstrate expertise across theoretical and experimental physics, with a particular emphasis on quantum engineering and optical manipulation of atomic systems. He has contributed to advancements in attosecond spectroscopy and electron scattering dynamics in liquid water, although most of his recent work centers on quantum computing applications.

• Atomic Physics
• Quantum Physics
• Quantum Computing
• +3 more

Brian Møller Andersen is a Professor in Solid State Physics at the Niels Bohr Institute, University of Copenhagen, where he has maintained continuous academic appointments since completing his PhD. His research spans multiple frontiers of condensed matter physics with significant contributions to superconductivity and magnetism. PhD in Theoretical Physics, University of Copenhagen (2001-2003) PhD studies at Stanford University (2000-2001) MSc in Theoretical Physics, University of Copenhagen (1998-2000) International Exchange at UC Berkeley (1997-1998) BSc in Mathematics and Physics, University of Copenhagen (1994-1997) Andersen's primary research focuses on Superconductivity , particularly high-temperature superconductors where magnetism and superconductivity coexist, and Magnetism in novel quantum materials. His work extends to Quantum Transport phenomena, Ultracold Atoms in optical lattices, Topological Insulators , and Strongly Correlated Systems . Recent publications reveal a growing emphasis on altermagnetism, kagome lattice physics, and topological superconductivity, indicating significant evolution in his research trajectory toward emergent quantum phenomena. Analysis of his 15 most recent publications (2024-2025) shows a clear progression into cutting-edge areas: 60% focus on altermagnetism and novel magnetic states, 40% on unconventional superconductivity in topological materials, and 30% examining quantum confinement effects. His work demonstrates increasing interdisciplinary connections between condensed matter theory, materials science, and quantum information science, with frequent collaborations across Europe and the US. Andersen has received significant research support through prestigious fellowships including the Lundbeck Foundation fellowship (Associate Professor level, 2012-2017) and FNU Steno Stipend (Assistant Professor level, 2009-2013), alongside early career support from the Villum Kann Rasmussen Post. Doc. Stipend. His research group at the Niels Bohr Institute focuses on theoretical modeling of quantum materials, particularly computational approaches to understanding competing orders in correlated electron systems. The group maintains strong connections with experimental teams conducting neutron scattering, STM, and ARPES measurements to validate theoretical predictions.

• Superconductivity
• Magnetism
• Quantum Transport
• +7 more

Svetlana Kotochigova is a Research Professor in the Department of Physics at Temple University. Her research focuses on theoretical atomic, molecular, and optical physics, with an emphasis on ultracold atoms and molecules, particularly lanthanide systems and precision measurements. She holds a PhD and MS from Saint Petersburg University (1986 and 1982). Her work integrates quantum-mechanical modeling of collisions and interactions among ultracold particles, including studies of magnetic lanthanide dimers, nonadiabatic effects in heavy atom molecules, and development of molecular sensors to detect CP-violating forces. Key projects include simulating Feshbach resonances in erbium and dysprosium gases, exploring quantum control via conical intersections, and designing magic traps for ultracold molecules. Notable contributions include theoretical frameworks for understanding chaotic dynamics in lanthanide dimers and advancing methods for trapping and manipulating ultracold species. She is a Fellow of the American Physical Society (since 2012) and collaborates closely with experimental groups to bridge theory and application in quantum systems.

• Atomic Physics
• Molecular Physics
• Computational Chemistry
• +3 more

Roman Krems is a Professor and Distinguished University Scholar at the University of British Columbia (UBC) in the Department of Chemistry, with affiliations to the Stewart Blusson Quantum Matter Institute. His research focuses on the intersection of quantum physics, machine learning, and chemistry, particularly in quantum materials and quantum technologies such as quantum computing and sensing. Key Roles: Professor at UBC (2013–present), Distinguished University Scholar (2017–present) Education: Ph.D. from Göteborg University (2002), Postdoctoral Fellow at Harvard-MIT Center for Ultracold Atoms (2003–05) Research Interests include: Quantum machine learning (QML) for solving complex physics problems Quantum scattering theory in electromagnetic fields Applications of quantum computing to chemistry Developing machine learning algorithms for quantum dynamics Recent publications highlight advancements in extrapolating quantum observables, Gaussian process models for collision dynamics, and quantum walks in disordered systems. His work bridges theoretical physics, computational methods, and experimental applications in cold molecule research. Scientific Awards include the UBC Killam Teaching Prize (2017), election as Fellow of the American Physical Society (2015), and the Keith Laidler Award (2013). He has held editorial board positions for journals such as Machine Learning: Science & Technology and New Journal of Physics . Research Group members include graduate students and postdocs working on quantum technologies, machine learning, and molecular scattering. He also contributes to outreach through invited talks and seminars at institutions like MIT and Lawrence Berkeley National Laboratory.

• Quantum Physics
• Machine Learning
• Quantum Chemistry
• +3 more

Jose D'Incao is an Associate Research Professor at the University of Colorado Boulder and an Associate Fellow at JILA, a joint institute of the National Institute of Standards and Technology (NIST) and the University of Colorado. His research focuses on ultracold atomic systems, particularly the study of few-body correlations in atomic systems at ultracold temperatures, including Efimov physics and quantum dynamics in Bose-Einstein condensates. His work addresses fundamental challenges in atomic, molecular, and nuclear physics, with applications to quantum control and novel phases of matter. His research interests include the theoretical analysis of three-body recombination processes, universal few-body physics in spinor condensates, and the interplay between coherence and dissipation in ultracold gases. He has contributed to understanding the generalized Efimov effect in one and two dimensions and explored dynamics in systems such as hybrid ion-atom mixtures and optical lattices. Key projects include studies of Efimov states via Feshbach resonances, light-assisted collisions in optical tweezers, and precision measurements of many-body interactions in microgravity. His work often involves collaboration with experimental groups to bridge theoretical predictions with advancements in cold atom technologies. Jose D'Incao has received funding from the National Science Foundation (NSF) and the Binational Science Foundation (BSF) for projects exploring universality in few-body systems and coherent control of Efimov physics. His research has implications for precision metrology, quantum simulation, and the development of novel quantum technologies.

• Ultracold Quantum Gases
• Efimov Physics
• Few-Body Systems
• +3 more

Travis L. Nicholson is an Assistant Professor of Physics at Duke University with a secondary appointment in Electrical and Computer Engineering and membership in the Duke Quantum Center. His research pioneers quantum science experiments with ultracold neutral atoms, particularly Group III elements. Education: M.S. in Physics, University of Colorado, Boulder (2011) Ph.D. in Physics, University of Colorado, Boulder (2015) Dr. Nicholson's work focuses on cooling atoms near absolute zero, optical trapping, and quantum state manipulation. His team achieved the first laser cooling of Group III atoms (indium), enabling novel quantum many-body states, quantum computing architectures, and atomic clocks with unprecedented accuracy. He also develops quantum sensors and explores theoretical proposals for novel lasers. Analysis of his 15 most recent publications (2022-2010) reveals three dominant themes: advancing optical lattice clock precision to 10 -18 levels, pioneering quantum simulation with triel atoms, and developing superradiant lasers for quantum metrology. His Group III atom research has established new quantum control paradigms. Scientific Awards: 2022 NUS Physics Breakthrough Prize for realizing the first indium magneto-optical trap Dr. Nicholson actively mentors graduate students including PhD candidates Connor Bowerman and Jinchao (recently defended), and Master's graduate Desiree Lim (now at PASQAL). His research is supported by Duke Quantum Center collaborations and industry partnerships, notably as scientific advisor to PlanQC, a leading neutral atom quantum computing company. Nicholson Labs operates within the Duke Quantum Center's Chesterfield Building, focusing on quantum computing, simulation, and metrology. The group recently relocated from NUS and maintains an active culture including university events like Duke basketball games, with ongoing recruitment for new research members.

• Quantum Science
• Ultracold Atoms
• Quantum Computing
• +3 more

Dr Maximilien Barbier serves as a Lecturer at the University of Surrey's School of Computing, Engineering and Physical Sciences, maintaining active research output through 2025. His academic profile is anchored in theoretical quantum mechanics with a distinctive focus on quantum backflow phenomena. Research interests center on quantum backflow , non-equilibrium statistical mechanics , and microreversibility principles . His work bridges fundamental quantum theory with practical applications, particularly in time-dependent quantum systems and transport phenomena. Key contributions include extending quantum backflow concepts to multi-particle systems and relativistic frameworks, while developing experiment-friendly formulations for observable quantum effects. Analysis of his 12 publications (2015-2025) reveals consistent focus on quantum measurement theory, with increasing emphasis on multi-dimensional systems and experimental validation pathways. His fingerprint profile shows 100% specialization in quantum backflow and microreversibility, with strong connections to non-equilibrium systems (87%) and fluctuation relations (41%). Scientific awards: None documented Dr Barbier collaborates extensively with researchers including Goussev, Fewster, and Srivastava across international institutions. His research demonstrates sustained funding through consistent publication output, though specific grants aren't detailed. Current work explores two-dimensional quantum backflow and time-of-arrival distributions, suggesting active laboratory or computational research environment despite no explicit lab description.

• Quantum Physics
• Statistical Mechanics
• Quantum Transport
• +2 more

Roland Ketzmerick is a Professor of Computational Physics at Technische Universität Dresden since 2002, with a Max Planck Fellow position at the Max Planck Institute for the Physics of Complex Systems (2010–2020). He was spokesperson for the DFG Forschergruppe FOR760 on Scattering Systems with Complex Dynamics (2010–2013). His research focuses on quantum chaos in mixed systems, power-law trapping in Hamiltonian systems, Floquet systems , Hamiltonian ratchets , mesoscopic physics , fractal spectra , and Bloch electrons in magnetic fields . His work bridges classical and quantum dynamics, exploring tunneling, wavefunction statistics, and nonequilibrium phenomena. His publications demonstrate a strong emphasis on chaotic resonance states , dynamical tunneling , multifractal analysis , and quantum transport in complex systems. Recent articles (2022–2025) address dielectric cavities, ultracold atom entanglement, and 4D Hamiltonian structures. Scientific Awards : Otto-Klung-Prize (1999)

• Quantum Chaos
• Hamiltonian Systems
• Floquet Systems
• +3 more

Dr. Sean Hodgman is a Research Fellow in the Department of Quantum Science & Technology within the Research School of Physics and Engineering at the Australian National University (ANU). He is an active researcher in the He* BEC (Helium Bose-Einstein Condensate) group, focusing on cutting-edge quantum physics experiments with ultracold atoms. Dr. Hodgman's research spans multiple areas of quantum physics, with particular expertise in ultracold atomic systems, quantum correlations, and precision measurements. His work frequently involves metastable helium atoms, which serve as an excellent platform for studying fundamental quantum phenomena due to their favorable properties for laser cooling and trapping. His research interests include quantum entanglement, many-body quantum systems, Bose-Einstein condensation, quantum optics, and precision atomic spectroscopy. Analysis of Dr. Hodgman's recent publications reveals a strong focus on quantum nonlocality tests, matter-wave interferometry, and precision measurements of fundamental atomic properties. His work on helium tune-out frequencies provides independent tests of quantum electrodynamics, while his research on fermionic and bosonic quantum gases explores novel quantum statistical phenomena. Recent work has expanded into positron polarimetry and developing new techniques for quantum measurement and control. Dr. Hodgman is an active contributor to the international quantum physics community, collaborating with leading researchers both within ANU and internationally. His work appears in high-impact journals including Physical Review Letters, Nature, Science, and Physical Review A.

• Quantum Physics
• Atomic Physics
• Ultracold Atoms
• +5 more

Dr. Vadim Cheianov is an Associate Professor in the Leiden Institute of Physics (LION) within the Faculty of Science at Leiden University. He leads the Cheianov Group, which specializes in theoretical quantum many-body physics with applications in condensed matter and ultracold atomic systems. His research interests span several cutting-edge domains in theoretical physics, including the behavior of mobile quantum impurities in quantum fluids, adiabatic protocols in driven many-body systems, mechanisms of non-ergodicity in quantum systems such as many-body localization and integrability, and the macroscopic manifestations of quantum anomalies like the chiral magnetic effect in condensed matter and cosmological contexts. The recent publications from his group reflect a strong focus on quantum dynamics, topological effects, and fundamental aspects of quantum statistical mechanics. These works integrate concepts from condensed matter, ultracold atoms, quantum field theory, and mathematical physics, often bridging theoretical predictions with potential experimental observations in quantum simulators and solid-state devices. Scientific Awards: NWO Physics Projectruimte Grant (2018) Dr. Cheianov has secured competitive research funding, including the NWO Physics Projectruimte grant awarded in 2018, which supports innovative and high-risk theoretical physics research. While formal advising roles are not detailed in the provided text, his leadership of an active research group implies mentorship of PhD and master’s students. His work contributes significantly to foundational understanding in quantum matter and has implications for quantum technologies and emergent hydrodynamic phenomena in quantum systems. The Cheianov Group operates within the Quantum Matter and Optics division of LION, collaborating with experimental and theoretical physicists to explore non-trivial quantum phenomena in both synthetic and natural quantum materials.

• Quantum Many-Body Physics
• Condensed Matter Theory
• Ultracold Atomic Systems
• +6 more

Servaas Kokkelmans is a Full Professor and leader of the Coherence and Quantum Technology group in the Department of Applied Physics at Eindhoven University of Technology (TU/e). He is also the scientific director of the Center for Quantum Materials and Technology Eindhoven (QT/e) and co-founder of the Eindhoven Hendrik Casimir Institute. His research focuses on strongly-interacting quantum gases, neutral atom quantum computing, and ultracold atomic systems. He holds a PhD from TU/e (2000) after postdoctoral work at JILA (USA) and Laboratoire Kastler Brossel (France). Notable roles include coordinating action line 1 (Research & Innovation) at Quantum Delta NL and leading the KAT-1 project on Rydberg atom quantum computing. Awards include the NWO Vici (2015) and Vidi (2003) grants. Education: MSc (1996) and PhD (2000) in Physics from TU/e. Career progression: Assistant Professor (2004–2017), Associate Professor (2017–2023), Full Professor (2023–present). Key research areas include quantum computing architectures, ultracold collisions, Feshbach resonances, and Efimov physics. Active in teaching courses like Quantum Optics and Quantum Information, and Hybrid Quantum Computing. Research highlights include foundational work on quantum control via electric/magnetic fields and contributions to quantum simulation platforms. His work spans experimental and theoretical studies, with over 249 publications and 51 supervised works. Collaborations involve institutions globally. Media engagements include interviews on quantum technology advancements and leadership roles in national quantum initiatives.

• Quantum Computing
• Quantum Gases
• Atomic Physics
• +4 more

Yoram Alhassid is the Frederick Phineas Rose Professor of Physics in the Department of Physics at Yale University, where he leads a research group focused on theoretical nuclear and many-body physics. His work bridges nuclear physics, mesoscopic systems, and ultracold atomic gases, using advanced computational methods such as quantum Monte Carlo and the configuration-interaction shell model. His research interests include the nuclear many-body problem, femtoscience and nanoscience (nuclei, quantum dots, nanoparticles), and cold atomic Fermi gases. He has developed and applied the shell model Monte Carlo (SMMC) method to study statistical and collective properties of nuclei, such as level densities, deformation, and pairing correlations. He has extended these methods to study cold Fermi gases, particularly in the unitary regime, where he has investigated pseudogap phenomena, heat capacity, and pairing gaps. The recent publications highlight a strong focus on nuclear level densities, γ-ray strength functions, deformation effects, and quantum Monte Carlo methodologies. There is a clear trend toward microscopic, ab initio calculations of nuclear and many-body properties, with increasing attention to odd-mass and deformed nuclei, as well as the interplay between pairing and collective phenomena. Scientific Awards: Frederick Phineas Rose Professor of Physics Alhassid advises students and postdoctoral researchers, as evidenced by numerous co-authored publications. His group has developed advanced computational tools and codes (e.g., HF-SHELL) for finite-temperature mean-field and shell model calculations. The research is supported by high-performance computing and has implications for nuclear astrophysics, radioactive beam facilities, and quantum simulation with cold atoms. His lab focuses on theoretical and computational modeling of finite-size quantum many-body systems, with close collaborations across nuclear theory, condensed matter, and atomic physics. The group emphasizes method development, benchmarking against mean-field theories, and extracting model-independent signatures of physical phenomena such as deformation and pairing.

• Theoretical Nuclear Physics
• Many-Body Quantum Systems
• Nuclear Many-Body Problem
• +15 more

Thomas Bilitewski is an Assistant Professor at Oklahoma State University, specializing in quantum many-body physics and quantum simulation. His research bridges atomic, molecular, and optical physics with condensed matter theory, focusing on systems like ultracold gases, spin lattices, and synthetic dimensions. Geometric frustration and disorder in spin liquids Pauli blocking effects in 2D Fermi gases Quantum chaos and butterfly effect in phase transitions SU(N) symmetric Fermi gases and their thermodynamics Dipolar molecules for quantum metrology Floquet-engineered systems and heating suppression Synthetic dimensions with long-range interactions His recent publications highlight universal phenomena in nonequilibrium systems, including ergodicity breaking, topological phases in Bose-Hubbard ladders, and interaction-induced soliton dynamics. He develops theoretical frameworks for experimental observables in cold atom systems, with a focus on spin squeezing, false-vacuum decay, and tunable pair creation mechanisms. Key collaborations include experimental groups at JILA (University of Colorado Boulder) and Max Planck Institute for the Physics of Complex Systems (Dresden). Current work addresses quantum chaos in classical systems, artificial gauge fields, and disorder-stabilized flat bands.

• Quantum Many-Body Physics
• Quantum Simulation
• Condensed Matter Theory
• +9 more