Find Academic Supervisors

• Observational Extragalactic Astrophysics
• Space Infrared Astronomy
• Star Formation
• +3 more

Vassilis Charmandaris is a Professor and Chair of the Undergraduate Program at the University of Crete's Department of Physics. He earned his BSc in Physics from the University of Thessaloniki (1989) and PhD in Astrophysics from Iowa State University (1995). His career includes postdoctoral research at CEA/Saclay (France), Marie Curie fellowship at Paris Observatory, and Research Associate positions at Cornell University before joining the University of Crete as Assistant Professor (2005), becoming Associate Professor (2009) and full Professor (2014). He has held leadership roles including Director of the Institute for Astronomy at FORTH and Director of Skinakas Observatory (2019-2025). His research focuses on observational extragalactic astrophysics with emphasis on space infrared astronomy, studying dust properties, molecular gas depletion, and star formation in interacting galaxies, starbursts, and active galactic nuclei. Key areas include galaxy mergers, JWST observations, and interstellar medium dynamics. Analysis of recent publications (2023-2025) shows consistent themes in galactic evolution studies, with frequent use of JWST data and focus on molecular gas dynamics in merging systems. Research employs advanced spectral analysis and interferometry techniques. No students, grants, or lab affiliations mentioned in available data.

Jochen KüpperView profile

Professor

• Molecular Physics
• Ultrafast Dynamics
• X-ray Laser Science
• +5 more

Jochen Küpper is a Professor of Physics at the University of Hamburg and heads the Controlled Molecule Imaging group at the Center for Free-Electron Laser Science (CFEL) at DESY. He also holds a professorship in the Department of Chemistry at the University of Hamburg. His research focuses on understanding the ultrafast dynamics of complex molecules during (bio)chemical reactions under well-defined conditions, with applications ranging from improved chemicals and materials to drug development. His research interests span molecular physics, ultrafast dynamics, X-ray laser science, molecular imaging, quantum chemistry, and chemical reaction dynamics. Küpper's work builds on groundbreaking approaches to control molecules and nanoparticles in the gas phase, including flash freezing, separation of structural isomers, and spatial fixation. He extends atomic-resolution imaging techniques to complex molecules using highly controlled sampling techniques and both ultrafast lasers and X-ray light sources. His recent publications reveal a strong focus on nanoparticle injection systems, laser-induced alignment of molecules, time-resolved structural biology, and advanced computational methods for molecular simulations. His work frequently involves collaborations across multiple institutions and leverages cutting-edge X-ray free-electron laser facilities. Nernst-Haber-Bodenstein Prize from the German Bunsen Society for Physical Chemistry Fellow of the Royal Society of Chemistry, UK Head of the Molecular Physics Section of the German Physical Society (2022-2025) Küpper leads a research group that develops experimental techniques for controlling and imaging molecules with unprecedented precision. His work bridges physics, chemistry, and biology through advanced imaging methodologies that capture molecular dynamics at femtosecond timescales. His laboratory maintains strong connections with international facilities including the European XFEL and DESY.

Marko HorbatschView profile

Professor

• Atomic Physics
• Quantum Optics
• Theoretical Physics
• +3 more

Marko Horbatsch is a Full Professor in the Department of Physics and Astronomy at York University, Faculty of Science. His research focuses on theoretical and computational studies of atomic and molecular collisions, ionization, electron capture, and interactions with strong laser fields. Specific interests include multiple ionization in ion-atom/molecule collisions, quantum optics, and high-precision spectroscopy for measurements like the proton radius and electron electric dipole moment (eEDM). He develops novel computational methods and tests time-dependent density functional theory (TDDFT). Research areas include Atomic, Molecular, and Optical Physics (AMO), with a computational and theoretical emphasis. He is affiliated with the EDMcubed collaboration, advancing methods to measure the eEDM using matrix-isolated BaF molecules. His work spans topics such as Stark resonances, laser-molecule interactions, and precision experiments in quantum physics.

Erich MuellerView profile

Professor

• Theoretical Condensed-Matter Physics
• Quantum Information
• Ultracold Atomic Gases
• +6 more

Erich Mueller is a Professor at the Department of Physics , College of Arts and Sciences , Cornell University . He directs the Laboratory of Atomic and Solid State Physics and previously served as Director (2015-2023). His research focuses on theoretical physics of ultracold atomic gases , quantum optics , and exotic quantum phenomena . B.Sc. in Mathematics/Physics (1996, University of British Columbia) Ph.D. in Physics (2001, University of Illinois at Urbana-Champaign) Postdoctoral: Ohio State University (2001-2003) Faculty: Cornell (2003-present, promoted to Professor in 2015) His research interests span quantum simulation of strongly correlated matter , non-equilibrium quantum dynamics , and topological states . He bridges condensed matter , nuclear physics , and high-energy physics concepts through cold atom experiments , using analytical and DMRG/cluster expansion techniques. Recent publications emphasize quantum information science (2022), Wigner-Mott transitions (2023), and non-Abelian braiding (2012). Collaborations include Randy Hulet (Rice), Brian DeMarco (UIUC), and Jeevak Parpia (Cornell) on superfluid 3 He studies. Scientific Recognition : Alfred P. Sloan Fellow (2005-2007) American Physical Society Fellow (2014) Paul Award for Advising Excellence (2013) He advises 11 graduate students (including Darren Pereira , Bhuvanesh Sundar ), with research groups exploring quantum Hall systems , spin-orbit coupling , and non-equilibrium phenomena . Funding sources include NSF and DARPA OLE grants.

Kitsopoulos TheofanisView profile

Professor

• Photodissociation Dynamics
• Surface Chemistry
• Ion Imaging
• +5 more

Kitsopoulos Theofanis is a Professor in the Department of Chemistry at the University of Crete. He holds a Ph.D. in Physical Chemistry from the University of California at Berkeley (1991) and has been affiliated with the university since 1993, progressing from Assistant to Professor by 2007. His research spans molecular photodissociation, surface reaction kinetics, and interdisciplinary applications in medical spectroscopy. He collaborates with institutions like the Max Planck Institute of Biophysical Chemistry. Education: B.Sc. (1986) - University of Illinois at Chicago Ph.D. (1991) - University of California at Berkeley His scientific interests include photodissociation dynamics of molecules and clusters, ion imaging , and velocity mapping . His team developed the Slice Imaging method for quantum angular momentum measurements and extended its use to molecular electronics , dye-sensitized photovoltaics , and laser-based keratoconus treatment . Since 2013, he has pioneered surface reaction kinetics methods, notably revealing the true mechanism of CO oxidation on Pt(111)/(332) in a Nature publication. The 15 most recent articles (2025-2021) show a focus on surface reaction mechanisms , quantum effects , and adsorbate interactions . Key trends include velocity-resolved kinetics, ion imaging advancements, and heterogeneous catalysis studies for industrial applications (e.g., Ostwald process, hydrogen oxidation). Collaborative work with institutions like the Max Planck Institute dominates recent publications. His laboratory (IT/ITE) at the University of Crete employs ion imaging and velocity mapping to study elementary chemical reactions on surfaces. He has authored high-impact studies in journals like Nature , J. Chem. Phys. , and Phys. Chem. Chem. Phys. , with a 2018 Nature paper on CO oxidation kinetics.

Wilfried NörtershäuserView profile

Professor

• Experimental Atomic Physics
• Nuclear Physics
• Radioactive Nuclides
• +4 more

Professor Wilfried Nörtershäuser is a University Professor for Experimental Atomic and Nuclear Physics of Radioactive Nuclides at the Faculty of Physics, Technische Universität Darmstadt. He leads the LaserSpHERe research group focusing on precision experiments at the interface of atomic, nuclear, and particle physics. His work involves conducting experiments at major international facilities including GSI/FAIR, CERN, FRIB, and ANL, while also operating the Collinear Apparatus for Laser Spectroscopy and Applied Physics (KOALA) at TU Darmstadt's Institute of Nuclear Physics. His educational background includes Physics studies (1990-1995) and Doctor rerum naturalium in Physics (1999, magna cum laude) from Johannes Gutenberg-Universität Mainz. He held postdoctoral positions at Pacific Northwest National Laboratory (1999-2000) and Eberhard Karls-Universität Tübingen (2000-2005), followed by leadership of a Helmholtz Young Investigator Group at Johannes Gutenberg-Universität Mainz & GSI (2005-2011). He was appointed Junior Professor at Johannes Gutenberg-Universität in 2009, reappointed in 2012, and became University Professor at TU Darmstadt in 2012. Nörtershäuser's research centers on laser spectroscopy of radioactive nuclides and highly charged ions to investigate nuclear structure, fundamental symmetries, and precision measurements. His work particularly focuses on nuclear charge radii determinations across the nuclear chart, from light isotopes like lithium and beryllium to heavy elements like bismuth. Recent work includes high-precision measurements of helium-like carbon ions and hydrogen-like bismuth-208, with significant findings recognized by a Nature Physics "News and views" article. His research publications demonstrate consistent focus on nuclear charge radii, exotic nuclei, laser spectroscopy techniques, and tests of fundamental physics. The trend shows increasing sophistication in measuring increasingly exotic systems, with particular emphasis on helium-like ions and storage ring applications. His work bridges atomic and nuclear physics through precision measurements that test quantum electrodynamics in strong fields and probe nuclear structure effects. Pacific Northwest National Laboratory Postdoctoral Fellowship DAAD Foreign Exchange Scholarship Scholarship of the German National Academic Foundation Recognition with Nature Physics "News and views" article for Bi-208 hyperfine structure measurement Professor Nörtershäuser has secured significant research funding including roles as Principal Investigator for DFG SFB 1245 and Program Director for APPA at Helmholtz Research Academy Hesse for FAIR (HFHF). He has supervised numerous theses as evidenced by the "Finished Theses" section on his research group website. His leadership extends to international collaborations including serving as German Representative in the ISOLDE Collaboration Committee and as Co-Spokesperson for the LASPEC Collaboration. The LaserSpHERe group operates the KOALA facility at TU Darmstadt while maintaining strong ties to major international facilities. The research team participates in multiple large-scale collaborations including the PRISMA Excellence Cluster, LASPEC Collaboration, and DFG SFB 1245. Current research directions focus on advancing laser spectroscopy techniques for increasingly exotic nuclear systems and pushing precision measurements to test fundamental physics principles.

Alexandra VelianView profile

Assistant Professor

• Inorganic Chemistry
• Catalysis
• Materials Science
• +5 more

Alexandra Velian is an Assistant Professor in the Department of Chemistry at the University of Washington, Seattle. She leads the Velian Research Group, which focuses on synthetic inorganic chemistry, catalysis, and the design of atomically precise inorganic nanomaterials. Her work emphasizes understanding and controlling metal-support interactions in catalysts and developing functional 2D materials like black phosphorus. Education: B.S. in Chemistry (Caltech, 2009), Ph.D. in Inorganic Chemistry (MIT, 2015), followed by postdoctoral research at Columbia University under Prof. Colin Nuckolls. She joined UW in 2017. Research Interests: Synthesis of inorganic clusters and nanomaterials, catalytic applications of single-atom catalysts, black phosphorus functionalization, and atomistic studies of surface reactivity. Key projects include the development of Fe/Co/Se nanoclusters for catalysis and the exploration of P-N bond chemistry in 2D materials. Awards: 2023 Marion Milligan Mason Award (AAAS), 2020 NSF CAREER Award, MIT’s Alan Davison Prize (2015), and ACS Young Investigator Award. Her lab is funded by NSF, DOE, and private foundations. Labs & Facilities: Located in the Chemistry Building (rooms 322-328), equipped with gloveboxes, Schlenk lines, and advanced spectroscopic tools. Research group includes ~20 members spanning graduate students, undergraduates, and postdocs. Core Values: Commitment to diversity, equity, and inclusion; fostering a supportive lab environment; and mentoring the next generation of chemists through courses like Chemistry Frontiers.

Henning SchmidtView profile

Professor

• Atomic Physics
• Collision Physics
• Molecular Ions
• +3 more

Henning Schmidt is a Professor at the Department of Physics (Fysikum) at Stockholm University, where he has held a permanent position since 2006. He obtained his PhD from Aarhus University in 1994, followed by postdoctoral research at the Max-Planck Institute in Heidelberg and Stockholm. Since 2011, he has led the DESIREE research infrastructure as its director, focusing on atomic and molecular collision physics. His work involves studying ion-beam storage rings to investigate fundamental processes such as mutual neutralization, radiative cooling, and reaction dynamics of molecular ions, clusters, and PAHs. Research highlights include groundbreaking studies on electron emission from silver dimers and rotational cooling of OH⁻ ions in cryogenic conditions. Education: PhD in Physics, Aarhus University, 1994 Guest PhD work at Max-Planck Institute, Heidelberg, 1994 Research Interests: Atomic and molecular collision physics, ion storage techniques, radiative cooling mechanisms, stability of interstellar molecules, and dynamics of clusters and PAHs. His work bridges experimental and theoretical studies to understand fundamental processes in low-energy ion-ion and ion-molecule reactions. DESIREE Facility: As director, Schmidt oversees this Swedish national infrastructure, enabling precision measurements of ion dynamics at cryogenic temperatures. Key applications include studying reaction pathways relevant to astrophysics and atmospheric chemistry.

Austin F. GulliverView profile

Professor

• Stellar Atmospheres
• Astrophysical Spectroscopy
• Atomic Line Parameters
• +3 more

Dr. Austin F. Gulliver is a Professor and Chair of the Department of Physics & Astronomy at Brandon University. His research focuses on the analysis of stellar spectra and atmospheres, particularly for hot stars, using high signal-to-noise (S/N) data from the Dominion Astrophysical Observatory (DAO) and other facilities. He leads the Astrophysical GF Values Project , which aims to refine atomic line parameters (e.g., oscillator strengths) for astrophysical applications. His collaborations include Dr. Graham Hill (University of Auckland) and Dr. Saul Adelman (The Citadel), with work centered on developing software tools like CCDSPEC (spectroscopic reduction) and STELLAR (stellar parameter fitting). Key projects involve spectral atlases of stars like Vega, Deneb, and o Pegasi, emphasizing high-resolution data and their role in galactic chemical evolution studies. Research interests span stellar hydrodynamics, convection modeling (e.g., Canuto-Mazzitelli theory), and instrument design, including the ASTRA Spectrophotometer . His work addresses systematic errors in abundance analyses and bridges observational astronomy with atomic physics. Publications emphasize high-precision spectral analysis, elemental abundances in A/F-type stars, and the development of spectroscopic tools. His team’s spectral atlases provide critical data for studies of stellar composition and astrophysical processes.

• Cell Mechanics
• Tissue Dynamics
• Mechanobiology
• +4 more

Raimon Sunyer Borrell is a Researcher at the Institute for Bioengineering of Catalonia (IBEC), where he leads investigations within the Integrative Cell and Tissue Dynamics group. His work bridges biophysics, bioengineering, and cell biology to decipher how mechanical forces govern cellular and tissue behavior in physiological and pathological contexts. His primary research focuses on mechanobiology, particularly collective cell migration, durotaxis (stiffness-guided migration), and tissue dynamics. He investigates how cells sense mechanical cues through adhesion complexes like E-cadherin, with applications in understanding developmental processes, sleep apnea pathophysiology, and circadian rhythm disruptions. His interdisciplinary approach combines advanced experimental techniques—including atomic force microscopy, microfluidic platforms, and 3D tissue models—with computational modeling to quantify force transmission and tissue remodeling. Analysis of his 15 most recent publications reveals consistent innovation in developing physiomimetic models for disease study (e.g., intermittent hypoxia systems for sleep apnea) and fundamental discoveries about collective cell behaviors. His work demonstrates how mechanical coordination across cell clusters enables optimal migration through complex environments, with implications for regenerative medicine and tissue engineering. Dr. Sunyer actively contributes to IBEC's collaborative ecosystem, working within the Integrative Cell and Tissue Dynamics group that develops cutting-edge tools for probing cellular mechanics. His research directly supports IBEC's mission to translate fundamental discoveries into biomedical applications through interdisciplinary collaboration.

Evgeniy RedekopView profile

Associate Professor

• Catalysis
• Chemistry
• Energy
• +7 more

Evgeniy Redekop is an Associate Professor at the University of Oslo , Department of Chemistry. His research focuses on sustainability-relevant catalytic reactions, combining time-resolved perturbation-enhanced kinetics (TAP) , in situ spectroscopy (AP-XPS, IR, XAS) , and multiscale modeling to decode molecular mechanisms. His work spans University of Oslo collaborations, including projects like NanoReactor, TAPXPS, TOMOCAT, and intriCAT. Research interests include: Zeolite- and MOF-catalyzed alkene conversion Metal/oxide-catalyzed CO 2 hydrogenation Selective oxidation on bimetallic surfaces Dynamic processes in reaction/diffusion systems Next-generation materials characterization tools Recent publications highlight 2024 studies on CO 2 hydrogenation zeotypes and 2023 work on ZnZrOx catalyst volatility , alongside 2022 investigations into TAP-AP-XPS synergy for ALD-derived catalysts. His methodologies bridge transient kinetics and surface spectroscopy , advancing understanding of material stability and catalytic efficiency . Contact: evgeniyr@smn.uio.no | Office: ØU40, Department of Chemistry, Sem Sælands vei 26, Oslo

• Particle Physics
• Atomic Physics
• Molecular Physics
• +3 more

L. Willmann is an Associate Professor at the Faculty of Science and Engineering of the University of Groningen. Their primary affiliation is with the Precision Frontier — Van Swinderen Institute for Particle Physics and G , where they conduct experimental research in particle and atomic physics. Willmann is also a member of the National Institute for Subatomic Physics (Nikhef), NL. Research Focus: Willmann's work centers on precision tests of the Standard Model of Particle Physics through carefully designed quantum systems. Key areas include: Experimental strategies for lepton number violation studies (e.g., muonium-antimuonium conversion) Bose-Einstein condensation of atomic hydrogen Weak interaction probing in atomic systems (Atomic Parity Violation) Electric dipole moment (EDM) searches in particles like radium, xenon, and BaF molecules Development of novel setups for precision measurements of the muon's magnetic anomaly (g-2) Current Projects: The NL-eEDM collaboration has built a sensitive new apparatus for electron EDM measurements. Willmann also contributes to advancements in cryogenic molecular beam technology and muon-induced X-ray emission techniques for elemental analysis. Collaborations: Active in international teams such as the NL-eEDM collaboration and Nikhef. Research involves interdisciplinary methods spanning particle physics, atomic physics, and laser physics. Lab Affiliation: Precision Frontier group at the Van Swinderen Institute, specializing in ultra-high precision measurement techniques.

• Quantum Science
• Ultrafast Optics
• Quantum Control
• +3 more

Prof. Svetlana Malinovskaya is a Professor in the Department of Physics at Stevens Institute of Technology, affiliated with the Charles V. Schaefer, Jr. School of Engineering and Science. She holds a PhD in Physics and Mathematics from Novosibirsk State University and the Institute of Chemical Kinetics and Combustion. Her research focuses on quantum science, ultrafast optics, and quantum control, with applications in quantum sensing, imaging, and coherent control of atomic and molecular systems. She has held prominent roles, including visiting positions at Harvard University’s ITAMP and the University of Michigan. Education: PhD (1993), Novosibirsk State University and Institute of Chemical Kinetics and Combustion, Russian Academy of Sciences (Physics and Mathematics) Research Interests: Quantum control and sensing with Rydberg atoms Coherent anti-Stokes Raman spectroscopy (CARS) and remote detection Ultrafast laser pulse shaping and adiabatic passage techniques Quantum many-body dynamics and entanglement Articles Trends: Recent work emphasizes quantum-enhanced sensing, entanglement engineering in Rydberg systems, and advanced Ramsey interferometry techniques. Key applications include charged particle detection, precision magnetometry, and mirrorless lasing phenomena. Awards: Alexander von Humboldt Research Fellowship (2023) Helmholtz Institute Mainz Visiting Program Scholarship (2022-2023) Teaching Faculty Award (2011) Grants & Advising: Leads federally funded projects (ONR, NSF, DARPA) on quantum sensing and remote detection. Mentors students in quantum technologies and interdisciplinary research. Serves on the American Physical Society’s DAMOP Executive Committee and organizes conferences like the APS Conference for Undergraduate Women in Physics. Labs & Teams: Heads the Cluster on Quantum Sensing and Imaging at Stevens, fostering interdisciplinary collaboration in quantum technologies.

Szilard NagyView profile

Researcher

• Nuclear Physics
• Precision Mass Spectrometry
• Penning Trap Mass Spectrometry
• +7 more

Szilard Nagy is a research scientist and group leader at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, affiliated with the Institute of Physics at Johannes Gutenberg University Mainz. He leads the MATS group and is a key contributor to the TRIGA-Trap and TRIGA-SPEC experiments, focusing on high-precision mass spectrometry of exotic nuclides. B.Sc. and M.Sc. from Babes-Bolyai University, Cluj-Napoca, Romania Ph.D. from Stockholm University, Sweden (2001-2005) Postdoctoral research associate at Johannes Gutenberg University Mainz (2006-2008) Recipient of the Alexander von Humboldt Research Fellowship (2006-2007) His research is centered on precision nuclear mass measurements using Penning trap techniques. He investigates transuranium elements , double-beta decay candidates , and fundamental symmetries through high-accuracy mass determinations. His work supports studies in nuclear structure , neutrino physics , and astrophysics . He also contributes to the development of advanced instrumentation such as RFQ coolers , aerodynamic lenses , and quartz resonators for ion traps. The 15 most recent publications show a consistent focus on Penning-trap mass spectrometry , with applications ranging from heavy element research to fundamental decay studies . The work spans experimental physics, instrumentation, and data analysis, often involving international collaborations at facilities like CERN and FAIR. Key themes include ion trapping , beam preparation , Q-value measurements , and detection system optimization . His scientific recognition includes: Research Fellowship from the Alexander von Humboldt Foundation, Germany Nagy has made significant contributions to experimental nuclear physics through both research and instrumentation. He has been involved in numerous grants and collaborative projects, including those supported by the European Union and international academies. His leadership in the MATS group indicates a strong mentoring and advisory role, though specific students are not listed. He continues to advance the field through cutting-edge experiments at the intersection of nuclear and atomic physics. He is actively involved in the MATS (Precision Measurements of very short-lived nuclei using an Advanced Trapping System for highly-charged ions) and LaSpec experiments at FAIR, focusing on high-precision studies using ion traps and lasers. His team develops novel techniques for ion cooling, bunching, and detection to enable measurements on the most exotic nuclei.

• Heterogeneous catalysis
• Hydrogen science and engineering
• Parahydrogen-induced polarization
• +2 more

Ruixuan Qin serves as Associate Professor in the Department of Chemistry at Xiamen University's College of Chemistry and Chemical Engineering, focusing on advanced catalytic systems for sustainable chemical production since 2022. Education background: PhD in Chemistry, Xiamen University (2013-2019) Bachelor's Degree, Sun Yat-Sen University (2009-2013) His research integrates heterogeneous catalysis with hydrogen science, specializing in parahydrogen-induced polarization techniques, hydrogen isotopic labeling, and separation processes. Work emphasizes fundamental surface mechanisms to enable green chemical synthesis through precise catalyst design. Analysis of 2023-2024 publications reveals dominant themes in palladium-based nanocatalysts for selective hydrogenation, with key innovations in oxygen vacancy engineering, surface ligand control, and atomically dispersed metal systems. Research consistently bridges theoretical modeling with experimental validation to optimize catalyst performance. Based at Xiamen University's National Engineering Laboratory for Green Chemical Productions of Alcohols-Ethers-Esters (NEL-AEE), his work directly supports sustainable industrial chemical processes through fundamental catalytic discoveries.