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Mikhail ZamkovView profile

Professor

• Semiconductor nanostructures
• Quantum dots
• Optoelectronic properties
• +6 more

Mikhail Zamkov is a Professor in the Department of Physics & Astronomy at Bowling Green State University (BGSU) , within the College of Arts and Sciences . He holds a B.S. from Krasnoyarsk State University, Russia and a Ph.D. from Kansas State University, USA , with postdoctoral experience at the University of Illinois at Urbana-Champaign and Kansas State University. Research Focus : Zamkov's work centers on electronic and optical properties of semiconductor nanocrystals , particularly colloidal quantum dots and hybrid nanomaterials . His group explores synthesis, optoelectronic characterization, and integration of nanoscale devices , including interfaces with biological systems . Key areas include photocatalysis, exciton dynamics, energy transfer mechanisms, and suppression of Auger recombination to enhance lasing and solar energy conversion. Recent Publications highlight quantum shells for stimulated emission , colloidal nanocrystals in scintillation , and two-dimensional electron-hole plasmas for tunable lasing . His research addresses photocorrosion challenges in nanocrystal-based systems and proposes ligand engineering and defect passivation strategies. Scientific Recognition includes the 2019 Professor of Research Excellence Award (BGSU) , 2017 Research Exemplar Scholar (Washington University School of Medicine) , and the 2014 Olscamp Research Award for young investigators . Students & Collaborators include Dulanjan Harankahage , Jiamin Huang , Divesh Nazar , and Amelia Dawn Waters , who contribute to experimental studies on nanocrystal solids , photocatalytic systems , and charge transfer phenomena . His group also investigates triplet exciton harvesting and nanocrystal assemblies for multi-electron reactions .

Alessandro FlaccoView profile

Researcher

• Plasma Physics
• Laser Acceleration
• Medical Physics
• +3 more

Alessandro Flacco is a Researcher at the Applied Optics Unit (LOA) , ENSTA Paris. His work focuses on laser-plasma accelerators , ultrashort electron/light sources , and their applications in radiobiology and medical physics . Key research themes include: Ultra-high dose-rate ( FLASH ) electron beam dosimetry Low-divergence proton beam shaping via genetic algorithms Characterization of plasma expansion for controlled ion acceleration Development of table-top X-ray lasers via collisional ionization His recent publications (2021-2025) highlight collaborations across institutions (Lausanne University Hospital, CNRS, IP Paris) and cover topics such as magnetic field persistence in plasmas, relativistic electron beam focusing , and PARP1 protein interactions in cancer therapy. Despite no explicit awards listed, his extensive publication record in high-impact journals (Nature Photonics, Scientific Reports, Physical Review) underscores his expertise in laser-driven particle acceleration and its biomedical applications.

Artem RudenkoView profile

Professor

• Atomic, Molecular and Optical Physics
• Ultrafast Science
• X-ray Science
• +5 more

Artem Rudenko serves as Cortelyou-Rust Professor and Director of the JR Macdonald Laboratory in the Department of Physics at Kansas State University. His research program bridges laboratory-based ultrafast laser experiments with international free-electron laser facilities including LCLS (Stanford), FLASH (Hamburg), and SACLA (Japan), utilizing advanced reaction microscopy techniques for molecular-scale imaging. His educational background includes: Ph.D. from Moscow Institute of Physics and Technology (2002) M.S. from Moscow Institute of Physics and Technology (1998) Rudenko's research centers on ultrafast light-matter interactions , particularly how atoms, molecules, and nanostructures respond to intense X-ray and optical pulses. His group pioneers "molecular movie" techniques using pump-probe methodologies to capture electron dynamics and nuclear motion at femtosecond-attosecond resolutions. Key methodologies include Cold-Target Recoil Ion Momentum Spectroscopy and Velocity Map Imaging for coincidence detection of reaction products, enabling studies of multi-electron ionization, wave packet dynamics, and interatomic decay processes. Analysis of his 2021 publications reveals dominant trends in X-ray induced molecular fragmentation , ultraintense multiphoton processes , and laser-material interactions across atomic, molecular, and condensed matter systems. His work consistently leverages international free-electron laser facilities while developing novel imaging approaches for light-driven phenomena. Research funding is secured through major federal agencies: Department of Energy National Science Foundation Rudenko actively mentors doctoral researchers, currently advising four PhD graduates (Keyu Chen, Sanduni Kudagama, John Searles, and FNU Shalauddin). His leadership of the JR Macdonald Laboratory establishes it as a hub for ultrafast science, operating sophisticated laser systems and fostering collaborations with global facilities. The lab specializes in developing reaction microscopy techniques for coincidence imaging of ionization and fragmentation dynamics.

Jochen KüpperView profile

Professor

• Molecular Physics
• Ultrafast Dynamics
• X-ray Free-Electron Laser Science
• +4 more

Jochen Küpper is a Professor in the Department of Physics and by courtesy in the Department of Chemistry at the University of Hamburg, while also serving as a Lead Scientist at DESY and Group Leader at the Center for Free-Electron Laser Science (CFEL). His work spans molecular physics, ultrafast dynamics, and advanced imaging techniques, with a focus on controlled molecule experiments and X-ray free-electron laser applications. Key Research Areas: Laser-induced alignment/orientation of molecules Single-particle diffractive imaging Quantum dynamics in intense fields Nanoparticle and biomolecule control His recent publications highlight innovations in imaging methodologies (e.g., Timepix3 detectors, aerodynamic lens simulations), ultrafast molecular dynamics (e.g., fluorene ionization, water dimer ionization), and machine learning applications for quantum simulations. His group has pioneered techniques for conformer-specific chemical kinetics and atomic-resolution imaging of complex systems. Scientific Awards: ERC Consolidator Grant (2013) Nernst-Haber-Bodenstein Prize (2009) Feodor-Lynen Fellowship (2001) Rao Prize (2000) Fellow of the Royal Society of Chemistry (2014) Küpper’s academic service includes leadership roles in the Deutsche Physikalische Gesellschaft and organizing conferences like MOLEC23 and QUTIF2018 . His work bridges theoretical modeling, experimental physics, and interdisciplinary applications in structural biology and materials science.

Igor JovanovicView profile

Professor

• Ultrafast Optics
• Ultrahigh Intensity Lasers
• Laser-Driven Radiation Sources
• +5 more

Igor Jovanovic is a Professor at the University of Michigan , with dual appointments in the College of Engineering (Nuclear Engineering and Radiological Sciences) and the College of Literature, Science, and the Arts (Applied Physics). His research focuses on ultrafast optics , ultrahigh intensity lasers , and laser-driven radiation sources for applications in nuclear science. Experimental development of ultra-broadband parametric amplifiers for attosecond pulse generation. Applications in nuclear security , nonproliferation , and nuclear safety . Leadership in the Applied Nuclear Science Group (ansg.engin.umich.edu). Research Trends : His recent articles emphasize neutrino detection , dark matter experiments , fast neutron imaging , and laser-driven radiation diagnostics for nuclear reactors and security. Key technologies include Compton cameras , double-pulse laser spectroscopy , and scintillator optimization . Scientific Awards : No specific awards listed in the provided text.

Milos BurgerView profile

Researcher

• Ultrafast laser–matter interactions
• Laser-induced breakdown spectroscopy (LIBS)
• Plasma physics and diagnostics
• +4 more

Milos Burger is an Associate Research Scientist at the University of Michigan since 2019, specializing in ultrafast laser–matter interactions and optical plasma diagnostics for nuclear-reactor safety and environmental monitoring. He earned his PhD in Plasma Physics from the University of Belgrade in 2015 after six years as a teaching and research assistant. Education PhD in Plasma Physics, University of Belgrade, 2015 Research Interests Burger’s core expertise lies in the fundamental physics of femtosecond laser pulse coupling with solids and gases, producing plasmas that serve as remote sensing sources. His activities span: Ultrashort laser–solid interactions and plasma formation Laser-induced breakdown spectroscopy (LIBS) for elemental detection in extreme environments Optical instrumentation for advanced fission reactors and nuclear safeguards Nonlinear propagation of structured beams in air, including orbital angular momentum (OAM) beams Machine-learning-enhanced control of high-power ultrafast lasers Recent work focuses on the ZEUS laser user facility, developing zettawatt-equivalent experiments and novel diagnostics for molten-salt reactors, hydrogen-rich environments, and trace actinide detection. Scientific Awards & Recognition No specific awards are listed in the provided material. Funding & Collaborations Burger is PI or co-PI on multiple projects funded through the University of Michigan and federal agencies, centred on reactor safety diagnostics, environmental contamination sensing, and advanced laser systems. He collaborates extensively with the ZEUS facility team and interdisciplinary groups spanning plasma physics, nuclear engineering, and optical sciences. Laboratories & Teams He is affiliated with the Center for Ultrafast Optical Science (CUOS) and the ZEUS laser facility at the University of Michigan, operating state-of-the-art femtosecond and petawatt-class laser systems for national and international user programs.

Jörg SchreiberView profile

Professor

• Laser-driven ion acceleration
• Radiobiology
• Laser-plasma physics
• +3 more

Prof. Jörg Schreiber is a Research Group Leader at the Centre for Advanced Laser Applications (CALA) of Ludwig-Maximilians-Universität München (LMU). His research focuses on developing laser-driven ion acceleration (LION) technologies for applications in radiobiology, medical physics, and fundamental science. He leads efforts to create Integrated Laser-Driven Ion Accelerator Systems (ILDIAS) that leverage unique proton bunch characteristics for novel imaging techniques and biomedical studies. Research interests span: Laser-plasma interactions and proton acceleration mechanisms FLASH radiotherapy using ultra-high dose rates Quantum electrodynamics experiments with multipetawatt lasers Advanced beam diagnostics and target development Medical applications of laser-driven particle beams Recent publications demonstrate strong focus on laser-driven FLASH radiobiology (7 papers), quantum vacuum phenomena (3 papers), beam optimization (4 papers), and novel diagnostic methods (3 papers), with increasing attention to clinical translation of laser-accelerated particles. Laboratory leadership includes development of the LION beamline and coordination of the CALA facility's 2.5 Petawatt laser system. Current work emphasizes: Designing irradiation platforms for preclinical studies Developing acoustic monitoring for proton therapy Creating microstructured targets for enhanced acceleration Investigating laser-nuclear physics applications

Mathew BrittonView profile

Researcher

• Ultrafast Optics
• Atomic, Molecular, and Optical (AMO) Physics
• Laser Interactions
• +3 more

Mathew Britton is an Associate Scientist at the SLAC National Accelerator Laboratory , affiliated with the Laser Methods & Metrology Group within the Laser Science Department at the Linac Coherent Light Source (LCLS) . His research focuses on ultrafast optics and AMO physics , with expertise in laser filamentation , photofragmentation dynamics , and X-ray pump-probe diagnostics . Education : Ph.D., Physics , University of Ottawa (2020) Postdoc, Stanford University (2020) B.Sc. Hons., Physics , Dalhousie University (2013) Research Interests span ultrafast molecular dynamics , Coulomb explosion imaging , site-selective ionization , and development of diagnostics for optical/X-ray experiments . His work bridges laser physics , molecular spectroscopy , and quantum control . Recent Articles (2024-2013) emphasize iodobenzene fragmentation , water dynamics , N₂⁺ air lasing , and quantum dot microcavity applications . Key subfields include photodissociation pathways , electron transfer models , and nonlinear laser interactions . Contact: brittonm@stanford.edu

• Nuclear Physics
• Atomic Physics
• Mass Spectrometry
• +3 more

Ryan J Ringle serves as a Fixed Term Associate Professor within the Department of Physics & Astronomy at Michigan State University, where he conducts experimental nuclear physics research primarily at the National Superconducting Cyclotron Laboratory (NSCL) and associated facilities. His work bridges fundamental nuclear structure studies with instrumentation development for rare isotope beam applications. Dr. Ringle's research program centers on precision mass spectrometry of short-lived radioactive nuclei using Penning trap techniques, with significant focus on beta decay studies, double beta decay investigations, and nuclear astrophysics applications. He specializes in developing advanced beam handling systems including gas catchers, beam coolers, and specialized Penning traps that enable high-precision measurements of exotic nuclei. His technical expertise spans ion beam dynamics, cryogenic systems, and ultra-sensitive detection methods essential for rare isotope research. Analysis of his recent publications (2017-2019) reveals consistent advancement in Penning trap mass spectrometry capabilities, particularly through the Low-Energy Beam and Ion Trap (LEBIT) facility. His work demonstrates increasing sophistication in measuring ultra-low Q-value decays, testing fundamental symmetries, and providing critical nuclear data for astrophysical models. The research consistently addresses instrumentation challenges while delivering high-impact nuclear physics results that constrain theoretical models. Dr. Ringle maintains active roles in multiple experimental teams at MSU's nuclear physics facilities, including leadership in the Advanced Cryogenic Gas Stopper project and contributions to the Beam Cooling and Laser Spectroscopy (BECOLA) collaboration. His work directly supports the scientific mission of the Facility for Rare Isotope Beams (FRIB), where his instrumentation developments enable next-generation experiments in nuclear structure, astrophysics, and fundamental interactions.

• High Energy Physics
• Heavy-Ion Collisions
• Quark-Gluon Plasma
• +3 more

Larissa Bravina is a Professor in the Department of High Energy Physics at the University of Oslo . Her research focuses on heavy-ion collisions , quark-gluon plasma , and quantum chromodynamics (QCD) . Email: larissa.bravina@fys.uio.no Her recent publications analyze thermalization , viscosity ratios , hyperon polarization , and QCD phase transitions using data from the NICA , FAIR , and LHC experiments. Key subfields include elliptic/triangular flow , equation of state , and nanoantenna applications in laser-induced fusion. She collaborates extensively with international teams, contributing to HYDJET++ and PACIAE models for simulating ultrarelativistic collisions . Research spans shear viscosity , chemical freeze-out , and resonance decays in nuclear matter.

Hiroshi SawadaView profile

Associate Professor

• High-Energy-Density Physics
• Laser-Plasma Interaction
• Relativistic Electron Generation
• +3 more

Hiroshi Sawada is an Associate Professor in the Department of Physics at the University of Nevada Reno. His research focuses on high-energy-density physics, laser-driven plasma generation, and diagnostics development for inertial confinement fusion. Education Ph.D. in Mechanical Engineering, University of Rochester (2008) M.S. in Mechanical Engineering, University of Rochester (2001) B.S. in Electrical Engineering, Kindai University, Japan (2000) Research Interests Prof. Sawada investigates: Ultrafast heating of solid-density matter using short-pulse lasers and XFELs. Relativistic electron generation for applications in fusion energy and radiography. Development of advanced diagnostics (monochromatic imaging, bremsstrahlung analysis). Magnetically driven compression of warm dense matter via combined laser-pulsed power experiments. Publication Trends Recent work (2021–2025) emphasizes spatiotemporal imaging of electron transport in plasmas using XFELs, hybrid PIC simulations for electron characterization, and target engineering for laser fusion. Over 50% of publications involve experimental work at facilities like SACLA and OMEGA EP. Awards No major awards listed in available data. Advising and Labs Leads experiments at UNR’s Zebra Pulsed Power Laboratory (Leopard laser + Zebra generator). Advised 11+ students on projects in plasma diagnostics, hybrid PIC modeling, and laser-target optimization. Collaborates with SLAC, LLE Rochester, and ILE Osaka.

Andreas BeckerView profile

Professor

• Ultrafast Phenomena
• Attosecond Science
• Laser-Matter Interaction
• +4 more

Andreas Becker is a Distinguished Professor of Physics at the University of Colorado Boulder and a Fellow at JILA, a joint institute with NIST. His research focuses on ultrafast phenomena in atoms, molecules, and clusters, particularly attosecond electron dynamics, coherent control, and molecular imaging using intense laser pulses. He develops theoretical methods to analyze interactions between matter and ultrashort (femtosecond/attosecond) laser fields, including high-harmonic generation and ionization processes. Key achievements include pioneering work on elliptically polarized high-harmonic generation, attosecond streaking time delays, and imaging ring-current wave packets in helium. He leads a collaborative group bridging theory and experiment, supported by grants such as the NSF Physics Frontiers Center (PFC) award. Notable honors include the Optica Fellowship (2023) and CU’s Distinguished Professor title (2021). His research spans attosecond science, multiphoton processes, and multielectron effects, with applications in XUV to mid-infrared laser technologies. He actively contributes to theoretical frameworks for ultrafast dynamics, emphasizing coherent control and plasma-state evolution. Current projects explore vacuum ultraviolet pulse characterization and spatial chirp effects in harmonic generation.

Tobias WittingView profile

Researcher

• Attosecond Physics
• Ultrafast Laser Physics
• Nonlinear Optics
• +3 more

Dr. Tobias Witting is a Senior Scientist at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy (MBI), Berlin, Germany, within the Department A2: Ultrafast XUV-Physics. His research focuses on attosecond science, ultrafast laser physics, and the development of cutting-edge laser technologies. He holds a DPhil in Atomic & Laser Physics from the University of Oxford (2005–2009) and a Diplom-Physiker from the University of Münster, Germany (2003–2005). **Research Interests**: Attosecond physics, nonlinear optics, high-harmonic generation, ultrafast pulse compression, and XUV spectroscopy. His work includes developing OPCPA systems for attosecond pump-probe experiments, phase-locking of attosecond pulse pairs, and characterizing ultrafast laser pulses at extreme intensities. **Key Projects**: Member of projects such as 'Ultrafast Laser Physics and Nonlinear Optics', 'Time-resolved XUV science', and 'Implementation of Lasers and Measuring Techniques'. He contributes to advancing attosecond pump-probe techniques, achieving terawatt-level pulse compression, and creating high-repetition-rate laser sources for real-time electron dynamics studies. **Publications**: Over 50 peer-reviewed articles in journals like Science Advances , Optics Letters , and Physical Review Letters , focusing on attosecond metrology, ultrafast dynamics, and laser technology. Notable works include 'Terawatt-level three-stage pulse compression' (2024) and 'Control of photoelectron-ion entanglement in H₂' (2023). **Labs & Teams**: Part of MBI’s Division A and the Quantum Optics and Laser Science group at Imperial College London (past affiliation). His research integrates theoretical and experimental approaches to advance attosecond science and its applications in materials and molecular physics.

• Nonlinear Optics
• Ultrafast Laser Spectroscopy
• Attosecond Science
• +2 more

Dr. Roman Volkov is a researcher previously affiliated with the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy (no longer employed there). His work focuses on ultrafast laser-matter interactions, attosecond science, and nonlinear optics. Key research themes include pulse compression techniques, laser filamentation, and plasma dynamics under high-intensity laser pulses. His research spans experimental and theoretical studies of ultrafast phenomena, with contributions to all-attosecond pump-probe spectroscopy and dense plasma physics. Notable experimental setups involve advanced laser systems for generating and analyzing ultra-short pulses. No scientific awards or advising activities are explicitly documented here. His work has been published in journals like Optics Letters , Science Advances , and Laser Physics Letters .

• Ultrafast Lasers
• Nonlinear Optics
• Pulse Compression
• +3 more

Dr. Tamás Nagy is the Department Head and Project Coordinator for the Ultrafast Lasers and Nonlinear Optics group at the Max Born Institute , Berlin, Germany. His research focuses on energy scaling of few-cycle pulse generation using hollow-core fiber compressors and optical parametric amplification systems, with recent breakthroughs in TW-level sub-2-cycle pulses and attosecond pump-probe spectroscopy. PhD in Physics (summa cum laude), University of Szeged (2004) MS in Physics, Attila József University Szeged (1997) His work spans ultrafast laser physics , nonlinear optics , and attosecond science , with innovations in hollow-core fiber technology for spectral broadening and pulse compression. Recent publications highlight advancements in high-energy few-cycle pulses , attosecond wavepackets , and MIR radiation generation . Key article trends include: Development of stretched hollow-core fibers for scalable energy compression Optimization of OPCPA systems for near-IR few-cycle pulses Novel techniques in attosecond spectroscopy and pulse characterization Exploration of plasmonic nanoantennas and relativistic laser interactions Scientific Awards : OSA Senior Member (2018) General Chair and Program Chair for High-Intensity Lasers and High-Field Phenomena (HILAS) conferences Collaborates with team members including Martin Kretschmar , Günter Steinmeyer , and Uwe Morgner , contributing to projects in time-resolved XUV science and laser-plasma interactions .