Dr. Vincent Bagnoud is a researcher at the Helmholtz Institute Jena , affiliated with the GSI Helmholtz Centre for Heavy Ion Research . His work focuses on high-intensity laser interactions with plasmas and quantum field theory under extreme conditions. Current positions: Member of the Scientific Council, leader of the Relativistic Laser Plasma Theory working group Research areas: Laser physics, quantum dynamics, X-ray science, and relativistic plasma interactions Contact: v.bagnoud@gsi.de , Room C12 2.012, +49 6159 71-1433
Stefan Adami is an Adjunct Professor at the Institute of Aerodynamics and Fluid Mechanics, Technical University of Munich (TUM), where he leads the 'Nanoshock' research group. He holds a Ph.D. in Mechanical Engineering from TUM and was awarded habilitation in 2022, followed by appointment as Privatdozent in 2023. His academic career at TUM includes roles as research associate, Akademischer Rat, and group leader. Research Interests: Compressible and multiphase flows Numerical modeling and simulation Smoothed Particle Hydrodynamics (SPH) High-speed aerodynamics and shock wave dynamics Applications in additive manufacturing and biomedical fluid mechanics His recent research employs advanced solvers like ALPACA for high-resolution simulations of bubble dynamics, shock interactions, and interfacial flows. He has contributed to modeling in laser-based 3D printing and cavitation-based drug delivery systems. Recent Publication Trends: His 2023–2025 publications emphasize compressible multiphase flows, high-order numerical schemes (WENO-THINC), and applications in materials processing and biomedical engineering. He frequently collaborates on solver development and benchmarking, including large-scale datasets for Riemann problems. Teaching: Lecturer for 'Numerical Methods for Conservation Laws' (Winter Semester) Lecturer for 'Turbulent Flows' (Summer Semester) Previously served as Teaching Assistant for Continuum Mechanics and Computational Solid and Fluid Dynamics Research Leadership: Leader of the 'Nanoshock' research group since 2015 Key contributor to the development of the ALPACA solver for compressible multiphase flows Active in interdisciplinary projects involving fluid-structure interaction and industrial applications
Professor Andreas Fring is a faculty member at the Department of Mathematics, City, University of London, holding the title of Professor of Mathematical Physics since 2008. He completed his PhD in Theoretical Physics at Imperial College London (1992) and held postdoctoral positions in São Paulo, Swansea, and Berlin before joining City University London. His research spans integrable quantum field theories, non-Hermitian Hamiltonian systems, PT-symmetry, and noncommutative space-time structures. PhD: Imperial College London, 1992 MSc: Imperial College London, 1989 BSc: University of London, 1988 His work focuses on mathematical physics , particularly PT-symmetric quantum mechanics , non-Hermitian Hamiltonians , and integrable systems . He has contributed to understanding complex solitons, quantum brachistochrones, and noncommutative spaces with minimal uncertainties. His recent research explores time-dependent non-Hermitian systems and their applications in gauge theories. The 15 most recent articles demonstrate expertise in non-Hermitian quantum systems , integrable field theories , and noncommutative geometry . Key subfields include PT-symmetry , soliton dynamics , time-dependent Hamiltonians , Goldstone bosons , minimal length uncertainty , and Kac-Moody algebras . He has supervised PhD students such as Takanobu Taira, Rebecca Tenney, and Julia Cen, focusing on topics like non-Hermitian quantum field theories and PT-symmetric integrable systems. No scientific awards are explicitly mentioned in the provided texts.
Andreas Knecht is a Researcher at the Paul Scherrer Institute (PSI) in Switzerland, affiliated with the Laboratory for Particle Physics and the Muon Physics group. His work focuses on muon-induced spectroscopy, nuclear structure analysis, and beamline engineering. His research spans muonic x-ray spectroscopy , charge radius measurements , and high-intensity muon beam optimization . Key methodologies include laser spectroscopy , target fabrication , and non-destructive elemental analysis . He contributes to infrastructure projects like HIMB (High-Intensity Muon Beams) and IMPACT upgrades. Recent publications highlight advancements in two-dimensional muon beam compression , superconducting magnet design , and precision detection systems for experiments like Mu3e and MONUMENT. His work intersects experimental particle physics , atomic physics , and applied material science . At PSI, he collaborates on non-destructive testing applications for cultural heritage (e.g., late antique fibula analysis) and energy storage diagnostics via Muon-Induced X-ray Emission (MIXE). His technical expertise includes molecular plating , SiPM cryogenics , and beam monitoring detectors .
Mathis Nolte is affiliated with the Institute of Optics and Quantum Electronics at Friedrich-Schiller-Universität Jena. He is part of a research team engaged in advanced photon science, particularly focusing on relativistic laser physics and quantum field theory at extreme intensities. His work intersects with experimental facilities like the POLARIS Laser and CRYRING@ESR storage ring. Research interests include high-intensity laser interactions, quantum logic spectroscopy, and soft X-ray spectroscopy. Collaborates with partner institutions such as GSI, DESY, and HZDR. Contact: mathis.nolte@uni-jena.de .
Supriya Rajhans is a Researcher at DESY (Deutsches Elektronen-Synchrotron) in Hamburg, Germany, affiliated with the Helmholtz Institute Jena—a collaborative venture between GSI Helmholtzzentrum für Schwerionenforschung, Helmholtz-Zentrum Dresden-Rossendorf (HZDR), and Friedrich Schiller University Jena. Her work integrates DESY's accelerator expertise with HIJ's mission to pioneer photon science through advanced laser and particle facilities. Her research spans high-intensity laser-matter interactions, quantum electrodynamics in extreme fields, and precision spectroscopy of highly charged ions. Key focus areas include relativistic plasma dynamics, EUV-to-mid-IR photon sources, and quantum logic techniques for studying fundamental atomic processes, leveraging HIJ's POLARIS, JETI40, and JETI200 laser systems alongside GSI's ESR storage ring infrastructure. As part of HIJ's scientific network, she contributes to third-party funded projects and the Research School of Advanced Photon Science, which offers thesis opportunities and academic collaborations with FSU Jena. The institute's experimental ecosystem—encompassing soft X-ray microscopy, high-purity polarimetry, and strong-field ionic targets—provides the foundation for her investigations into matter under extreme conditions.
Benjamin Grabiger is a researcher at the Helmholtz Institute Jena , affiliated with the Institute of Optics and Quantum Electronics . He contributes to multiple working groups focused on advanced photon science and relativistic quantum dynamics. Research Interests : Relativistic laser-plasma interactions Quantum field theory at extreme intensities Atomic physics with highly charged ions and X-rays Development of high photon flux sources (EUV to mid-IR) Quantum logic spectroscopy of heavy ions Soft X-ray spectroscopy and microscopy Contact: Room 326, +49 3641 947-263 | Located at Max-Wien-Platz 1, Jena | Collaborates with GSI, DESY, HZDR, and FAIR institutions.
Dr. Alexandre Gumberidze serves as a researcher at the GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany, affiliated with the Atomic Physics Group under the Helmholtz Institute Jena—a collaborative entity involving GSI, Friedrich Schiller University Jena (FSU Jena), DESY, HZDR, and FAIR. His work centers on cutting-edge experimental physics utilizing advanced accelerator and laser facilities. His research spans atomic physics with highly charged ions and X-rays, emphasizing high-purity X-ray polarimetry, quantum logic spectroscopy of heavy ions, and relativistic quantum dynamics. This involves probing strong-field interactions through specialized instrumentation like the ESR Storage Ring and high-intensity laser systems (POLARIS, JETI40, JETI200), contributing to fundamental understanding of ion-beam physics and photon-matter interactions at extreme conditions. The Atomic Physics Group operates within GSI's experimental ecosystem, leveraging facilities including HITRAP, CRYRING@ESR, and soft X-ray spectroscopy setups. Dr. Gumberidze's technical environment integrates accelerator physics with quantum measurement techniques, supporting the institute's mission in advanced photon science through collaborations across the European XFEL network.
Hans Rinderknecht serves as an Assistant Professor in the Physics and Astronomy Department at the University of Rochester and leads research at the Laboratory for Laser Energetics (LLE). Appointed as the founding group leader of the Relativistic Laser-Plasma Experiments group in 2020, he directs cutting-edge investigations into high-energy-density physics and fusion energy science. AB in Physics with honors, Princeton University (2008) PhD in Physics, Massachusetts Institute of Technology (2015) His research centers on experimental plasma physics with emphases on relativistic laser-plasma interactions, kinetic effects in fusion plasmas, and high-energy-density matter. Key initiatives include studies of relativistic transparency, magnetic filament electron acceleration, mega-Tesla fields, collisionless shocks, and secondary radiation sources like gamma flashes and THz pulses. His diagnostic development work spans charged particle imaging, ion-wave Thomson scattering, and high-repetition-rate systems for laser-driven experiments. Recent publications (2024-2025) reveal a strong focus on quantum electrodynamics in extreme laser fields, terahertz radiation generation from microchannel targets, inertial confinement fusion diagnostics, and laser wakefield acceleration techniques. His work leverages major facilities including OMEGA, OMEGA-EP, National Ignition Facility, and LaserNetUS platforms to advance fusion energy science and fundamental plasma physics. LLNL Deputy Director of Science and Technology Award (2021) NNSA Office of Defense Programs Award (2021) IOP Trusted Reviewer (2021) Dr. Rinderknecht's research program is funded through the DOE Office of Fusion Energy Science INFUSE program and the NSF/DOE Partnership in Basic Plasma Science and Engineering. He directs experimental campaigns on OMEGA, OMEGA-EP, and MTW-OPAL laser systems while mentoring junior researchers in plasma diagnostics and fusion technology development. His group maintains active collaborations with Lawrence Livermore National Laboratory and TAE Technologies. The Relativistic Laser-Plasma Experiments group operates dedicated target areas for relativistic interactions at LLE, including the Multi-Terawatt Optical Parametric Amplifier Line system. Current efforts focus on strong-field QED validation, dephasingless laser wakefield acceleration, and advanced THz source development using microchannel targets, with recent shot allocations at the Texas Petawatt Laser through LaserNetUS.
Sergey Makarov is a Professor at ITMO University's Faculty of Physics and Engineering, Dean of the Faculty of Photonics, and Head of the Laboratory of Hybrid Nanophotonics and Optoelectronics. His research focuses on advanced laser physics and nanophotonics, with applications in surface engineering and dielectric metamaterials. Education: DSc in Physics, PhD in Laser Physics (2014), BSc in Condensed Matter Physics (2011) from National Research Nuclear University MEPhI. Dr. Makarov's work spans femtosecond laser ablation , dielectric nanophotonics , and ultrafast electron dynamics , with a particular emphasis on creating functional nanostructures for optoelectronic devices. His publications from 2013–2015 highlight interdisciplinary research in Optics , Nanotechnology , and Materials Science , with recurring subfields such as plasmonic resonance, surface structuring, and laser-induced phase transitions. He leads a research lab at ITMO University, mentoring students and collaborators in hybrid nanophotonics. While no specific awards are listed, his extensive publication record in high-impact journals like Nano Letters and Applied Physics A demonstrates significant contributions to ultrafast laser-matter interactions and nanoscale engineering.
Martin Gebhardt serves as a Researcher at Heriot-Watt University's School of Engineering & Physical Sciences , specifically within the Institute of Photonics and Quantum Sciences . His work focuses on advancing ultrafast laser technologies and quantum optical systems through experimental and theoretical approaches. His research spans Solitons , Ultrafast Laser Physics , and Quantum Sciences , with particular emphasis on manipulating light-matter interactions at extreme temporal and intensity scales. Key investigations include terawatt-scale attosecond pulse generation, soliton dynamics in gas-filled capillaries, and high-harmonic generation enhancement through nonlinear wave phenomena. His experimental frameworks often bridge fundamental quantum optics with practical applications in precision metrology and advanced light sources. Analysis of his 2023-2025 publications reveals a concentrated focus on pushing the boundaries of ultrafast optics and nonlinear photonics . His work consistently explores soliton-based compression techniques to achieve unprecedented pulse durations and intensities, particularly in the far-ultraviolet and mid-infrared spectral regions. This research trajectory demonstrates strategic alignment with next-generation light source development for attosecond science and quantum technology applications. Martin Gebhardt maintains active collaboration networks across European quantum photonics initiatives, as evidenced by his co-authorship with leading institutions in Germany and the UK. His current projects emphasize practical implementations of theoretical models in gas-phase and solid-state optical systems, targeting industrial and scientific applications requiring extreme light parameters.
Martin C. Richardson is a Pegasus Professor of Optics & Photonics and Electrical & Computer Engineering at the University of Central Florida (UCF), and Founding Director of the Townes Laser Institute. He holds the Northrup Grumman Professorship and leads the Laser Plasma Laboratory at CREOL. With a PhD from London University (1967), his career spans over five decades in laser research, plasma physics, and ultrafast laser systems. Research interests include laser plasmas, EUV/X-ray technologies, high-intensity filamentation, and laser materials processing. He has pioneered advancements in laser fusion, ultrafast optics, and international collaborations. Notable contributions include patents on CO2 lasers, x-ray laser development, and innovations in laser diagnostics. His honors include AAAS, APS, SPIE, and OSA Fellowships; the Schardin Medal (1976); and the 2013 SPIE Harold E. Edgerton Award. He has advised over 40 PhD students and led major grants, including a $24M Northrop Grumman donation (2003) and a MURI grant (2006). He directs international education programs linking UCF with universities in Bordeaux, Jena, and Clemson. Leadership roles include adjunct faculty at the University of Rochester’s Institute of Optics, visiting positions at the Max Born Institute and Osaka University, and directorships at the Townes Laser Institute. His work bridges fundamental science and applications in energy, materials, and global science equity.
Dr. Mark Quinn is a Senior University Teacher in Physics and Employability Lead for Physics at the University of Sheffield's School of Mathematical and Physical Sciences. His research focuses on physics education, intense laser-plasma interactions, laser-driven particle accelerators, and space debris remediation. He leads the Level 1 Physics Laboratory and contributes to initiatives like the ShePHERD research group. His work includes studies on laser-driven proton radiography, space debris removal via coherent amplifying network (CAN) lasers, and electron transport dynamics in high-intensity laser-solid interactions. Quinn has co-authored over 50 peer-reviewed publications since 2003, spanning topics from plasma physics to astrophysical observations with gamma-ray telescopes. Teaching responsibilities include computational physics courses (PHY236) and professional skills development (PHY113). Collaborations involve international projects such as the LIBRA initiative for laser-driven ion sources and radiobiology applications.
Dr. Jessica Shaw is a Researcher at the University of Rochester’s Laboratory for Laser Energetics. She holds M.S. and Ph.D. degrees in Electrical Engineering from UCLA, specializing in laser-plasma interactions. Her research focuses on experimental short-pulse laser-plasma interactions, including plasma-based Raman amplification, laser wakefield acceleration physics, and applications of accelerator-produced beams. Education: M.S. and Ph.D. in Electrical Engineering (UCLA) Her work emphasizes advancing ultrafast laser technologies for high-energy-density physics. Key areas include programmable flying focus pulses, dephasingless laser wakefield acceleration, and x-ray source development using picosecond lasers. Recent studies explore electron beam generation, plasma channel formation, and parameter optimization for direct laser acceleration. Her research leverages facilities like OMEGA EP and NSF OPAL, addressing challenges in plasma dynamics and beam diagnostics. Contributions include breakthroughs in x-ray radiography techniques and bubble-regime wakefield control. Current efforts aim to achieve single-stage TeV-class electron beams and enhance plasma-based laser systems. Notable projects involve supersonic gas-jet nozzle validation, ion beam acceleration, and the role of focusing geometry in electron dynamics. Her work bridges fundamental plasma physics with applied technologies for high-energy physics and inertial confinement fusion diagnostics.
John Palastro holds dual roles as Assistant Professor in the Department of Mechanical Engineering and Associate Professor in the Institute of Optics at the University of Rochester. He also serves as Plasma Theory Group Leader and Senior Scientist at the Laboratory for Laser Energetics (LLE). His research focuses on laser-matter interactions, nonlinear optics, and plasma-based accelerators, with particular emphasis on advancing inertial confinement fusion and ultra-high-intensity laser technologies. Dr. Palastro’s work bridges fundamental plasma physics and applied engineering, aiming to optimize laser-driven systems for energy applications, radiation sources, and particle acceleration. He has pioneered techniques for flying-focus pulse control, plasma wakefield acceleration, and mitigating laser-plasma instabilities. His contributions include experimental design for next-generation fusion facilities and theoretical advancements in relativistic optics. Awards : Recipient of the Thomas H. Stix Award for early-career excellence in plasma physics research. Labs/Teams : Leads the Plasma Theory Group at LLE, collaborating with national labs and international institutions on high-energy density physics projects.
