Kjeld Eikema is a Researcher and Group Leader of the EUV Plasma Processes department at ARCNL (Amsterdam Research Center Netherlands). His work focuses on advanced plasma-based technologies, particularly in the context of extreme ultraviolet (EUV) light generation and plasma process modeling. He collaborates with interdisciplinary teams across ARCNL's research divisions, including Plasma Theory and Modeling, Ion Interactions, and Computational Imaging. ARCNL's mission involves advancing fundamental and applied research in plasma physics, materials science, and nanoscale imaging. Eikema’s group specializes in understanding plasma dynamics for EUV applications, with implications for semiconductor manufacturing and precision metrology. His research leverages cutting-edge experimental setups and computational tools to address challenges in high-intensity laser-plasma interactions. Contact details: Email | ARC-NL Website
Christoph H. Keitel is a Professor and Director at the Max Planck Institute for Nuclear Physics, with an honorary professorship at Heidelberg University. His research spans quantum electrodynamics, laser-matter interactions, and precision atomic physics. He leads investigations into radiation reaction, particle acceleration, and fundamental symmetries using high-intensity lasers and atomic spectroscopy. Keitel has received the Willis E. Lamb Award and Gustav Hertz Prize for pioneering contributions to laser science and quantum optics. His group develops advanced theoretical frameworks for testing QED and particle physics through high-precision experiments.
Bin Li is an Associate Professor and Associate Chair of Actuarial Science in the Department of Statistics and Actuarial Science at the University of Waterloo. He holds a PhD in Applied Mathematical and Computational Sciences (2013, University of Iowa), and master's and bachelor's degrees in Computational Mathematics from Xi’an Jiaotong University (2008 and 2005, respectively). His research focuses on quantum optics and optical engineering, particularly in developing robust laser-driven systems for quantum light sources, solid-state emitters, and trapped ion quantum computing. He has pioneered techniques like Notch-filtered Adiabatic Rapid Passage (NARP) and advanced femtosecond pulse engineering for high-performance quantum systems. His work bridges theoretical quantum physics with experimental optical innovations. Research interests include: Optical driving schemes for quantum emitters Adiabatic inversion and rapid passage methodologies Individual ion addressing in quantum simulators Spin dynamics in 2D perovskite materials Publications span 2018–2025, emphasizing advancements in quantum engineering, ultrafast optics, and atomic-scale systems. While no scientific awards are explicitly listed, his impactful contributions to quantum technologies suggest active recognition in the field. Advising and grants: No specific advisees or grants are documented in the provided texts, though his research activities imply involvement in graduate supervision and funding programs.
Douglass Schumacher is a Professor in the Department of Physics at The Ohio State University, where he leads research in extreme light-matter interactions using ultraintense, ultrashort pulse lasers and supercomputing. He is a member of the OSU High Energy Density Physics (HEDP) Group and utilizes the 400 TW Scarlet laser facility and Ohio Supercomputer Center for his research. Dr. Schumacher teaches multiple courses including Ultrafast Optics, Modern Optics, Quantum Optics, and various undergraduate physics sequences. Education: B.S. in Physics from University of Illinois, Champaign-Urbana (1983) Ph.D. in Physics from University of Michigan (1995) Dr. Schumacher's research focuses on the interaction of intense light with matter across multiple intensity regimes, from nonlinear optics phenomena like white light continuum generation to relativistic laser plasma physics where electrons are accelerated close to light speed. His work explores applications in x-ray and gamma ray generation, particle acceleration, and creating unusual states of matter similar to those found in planetary cores and stars. He employs both experimental approaches using advanced laser facilities and computational modeling to investigate these extreme physical conditions. His recent publications demonstrate expertise in liquid crystal targets, plasma mirrors, and high-repetition rate laser systems. The research shows a strong emphasis on experimental techniques for high-energy density science, with applications spanning from fundamental plasma physics to potential medical and industrial uses of advanced laser technologies. Dr. Schumacher maintains an active research group with multiple graduate and undergraduate students, indicating strong mentoring activity. His research is supported by major funding agencies including the Air Force Office of Scientific Research (AFOSR), Department of Energy Office of Science (DOE SC), National Nuclear Security Administration (NNSA), and Ohio Supercomputer Center (OSC). He leads the laser research efforts in the Physics Research Building (PRB), maintaining laboratory space in rooms 4115 (lab) and 4180 (office). His work connects with broader scientific communities through memberships in The American Physical Society and The Optical Society of America.
Paul McKenna is a Professor in the Department of Physics, Faculty of Science, at the University of Strathclyde, where he currently serves as Deputy Associate Principal (Research & Knowledge Exchange). He previously held leadership roles as Vice Dean (Research) in the Faculty of Science (2021–2023) and Head of the Department of Physics (2018–2021). His work is central to advancing ultra-intense laser-plasma science and its applications. His research focuses on ultra-intense laser-plasma interactions , particularly the development of laser-driven particle and radiation sources , plasma optics and photonics , and high field science . His work bridges fundamental physics with practical applications in medicine, materials science, and fusion energy. He is actively involved in major international laser facilities, serving on advisory boards such as the Program Advisory Committee for the Extreme Light Infrastructure-Nuclear Physics (ELI-NP) and previously at the Central Laser Facility, Harwell. Recent publications highlight a strong trend in laser-driven proton acceleration , beam diagnostics using machine learning , plasma-based collimation , and structured light generation . His work increasingly integrates computational methods, such as Bayesian optimization and neural networks, to enhance experimental outcomes in high-energy-density physics. Fellow of the Royal Society of Edinburgh (2020) High Power Laser Science and Engineering Outstanding Contribution Award (2023) McKenna has secured significant research funding, notably from EPSRC, and leads multiple active projects including those on relativistic plasma apertures and Bayesian optimization in fusion simulations. He contributes extensively to researcher development and postgraduate research strategy. He has supervised numerous early-career researchers and PhD students, though specific names are not listed in the provided data. He is also involved in interdisciplinary efforts to foster collaborative research cultures in technological universities. He leads or participates in advanced research facilities such as the SCAPA (Scottish Centre for the Application of Plasma-based Accelerators) and contributes to the development of high-repetition-rate laser systems. His lab’s work is highly collaborative, involving partnerships across the UK and internationally, with strong ties to institutions like Queens University Belfast and national laboratories.
Prof. Dr. Hartmut Ruhl is a Professor (chair) at the Faculty of Physics of Ludwig-Maximilians-Universität München (LMU Munich), with his office located at Theresienstrasse 37, Room A237 in Munich, Germany. He leads an active research group focused on high field physics and quantum electrodynamics, particularly investigating radiation reaction, vacuum effects, and strong field phenomena. Prof. Ruhl's research spans several cutting-edge areas of theoretical and computational physics. His primary interests include high field physics, quantum electrodynamics in strong fields, radiation reaction effects, vacuum polarization phenomena, and computational methods for solving complex physical systems. He has made significant contributions to understanding the Heisenberg-Euler effective Lagrangian, vacuum high harmonic generation, and the Trident process for electron-positron pair production. His work combines theoretical developments with advanced numerical simulations to explore physics in extreme electromagnetic field conditions. Prof. Ruhl's publication record demonstrates consistent focus on nonlinear quantum electrodynamics in strong fields. His work spans theoretical developments in radiation reaction, numerical methods for solving Heisenberg-Euler equations, and investigations of vacuum effects like high harmonic generation and pair production. A recurring theme is the exploration of quantum vacuum nonlinearities and their observable consequences in high-intensity laser-matter interactions. Prof. Ruhl actively supervises PhD students in high field physics, requiring profound knowledge in quantum transport theory and advanced programming. His group seeks candidates who have completed his courses in Relativistic Quantum Theory and Advanced Programming. He co-organizes the seminar 'Selected Topics in Computational Physics' with Prof. A. Scrinzi, serving as a platform for master's and PhD students interested in computational plasma physics. Prof. Ruhl is associated with the Advanced Simulation Center (ASC) at LMU Munich, as indicated by room locations in his teaching schedule. He collaborates closely with Prof. A. Scrinzi on computational physics topics and is involved with the PSC (Plasma Simulation Code) project. His research group develops specialized numerical solvers for nonlinear wave equations based on the Heisenberg-Euler effective Lagrangian, contributing to the understanding of quantum vacuum effects in extreme field conditions.
Christoph Helmut Keitel is an honorary professor at Heidelberg University's Faculty of Physics and Astronomy and serves as Director at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, Germany. His research spans quantum electrodynamics, strong-field laser physics, atomic and nuclear physics, with a focus on precision measurements and quantum dynamics. Director at Max Planck Institute for Nuclear Physics (2004-present) Managing Director of MPIK (2006-2008, 2024-present) Founding Speaker of the International Max Planck Research School for Quantum Dynamics (2005-present) Advisory Board member of ELI (Extreme Light Infrastructure) (2008-present) Keitel's research interests focus on the interaction of intense laser fields with matter, quantum electrodynamics in strong fields, precision measurements of fundamental constants, and nuclear physics. His work bridges theoretical and experimental physics, developing advanced theoretical frameworks to interpret cutting-edge experiments in strong-field physics. His research group investigates phenomena such as radiation reaction, quantum tunneling in strong fields, electron-positron pair creation, and precision spectroscopy of highly charged ions. He has made significant contributions to understanding the dynamics of particles in extreme electromagnetic fields and developing novel methods for precision measurements that test the limits of quantum electrodynamics and search for physics beyond the Standard Model. His scientific work has been recognized with numerous awards including the Willis E. Lamb Award for Laser Science and Quantum Optics (2023), APS "Outstanding Referee" Award (2008), Fellowship in the Optical Society of America (2006), and the Gustav Hertz Prize of the German Physical Society (2003). Keitel has supervised numerous doctoral students through the International Max Planck Research School for Quantum Dynamics and has been involved in major collaborative research projects including the SFB 1227 DQ-mat. His research has practical applications in developing novel light sources, precision measurement techniques, and advancing our understanding of fundamental physical processes that could lead to breakthroughs in quantum technologies.
Matteo Tamburini is a Group Leader at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, leading the Extreme Field Quantum Plasma Dynamics and Relativistic Laboratory Astrophysics group. He also serves as a Lecturer at the International Max Planck Research School in Quantum Dynamics (IMPRS-QD). His academic journey includes a PhD in Physics from the University of Pisa, Italy, and postdoctoral research at MPIK. Research Interests: Tamburini specializes in quantum plasma dynamics, strong-field quantum electrodynamics (QED), and high-intensity laser-plasma interactions. He focuses on topics such as radiation reaction effects, relativistic astrophysical simulations, and the generation of ultra-high energy particles and gamma-ray bursts. His work bridges theoretical modeling with experimental validation at facilities like FACET-II (SLAC), Gemini (UK), and DESY. Experimental Contributions: Key projects include devising experiments to probe quantum radiation reaction (E-332, E-320, E-305), developing the SFQEDtoolkit for QED simulations, and advancing polarized laser-wakefield acceleration. His research often involves close collaboration with international teams and leverages cutting-edge facilities like the Gemini laser and FACET-II. Awards & Service: Tamburini is recognized as an IOP trusted reviewer for peer review excellence. He organizes the Seminar Theoretical Quantum Dynamics and contributes to reviewing for journals like Physical Review Letters and Nature Physics. He has secured significant funding, including a 4-year scholarship for student Michael Quin. Lab/Teams: Leads the Extreme Field Group at MPIK, focusing on advancing understanding of quantum plasma phenomena and relativistic astrophysical processes through theoretical and computational approaches.
Petros Rakitzis is a Professor in the Department of Physics at the University of Crete and affiliated with the Foundation for Research and Technology - Hellas (FORTH) at the Institute of Electronic Structure and Laser (IESL). He received his B.A. in Physics and Chemistry from Cornell University (1992) and his Ph.D. in Physics from Stanford University (1997), focusing on atomic and molecular angular momentum in chemical reactions. Since 2001, he has progressed from Lecturer to Professor, securing the prestigious ERC Starting Grant in 2008. His research spans quantum angular momentum, spin polarization, photodissociation dynamics, and cavity-enhanced spectroscopy. Education: B.A. in Physics and Chemistry, Cornell University (1992); Ph.D. in Physics, Stanford University (1997) Rakitzis's work explores spin manipulation in particle beams, polarization phenomena in spectroscopy, and chirality sensing using parity-time-symmetric systems. His research has applications in nuclear fusion, laser-plasma acceleration, and quantum metrology. He leads the PREFER collaboration, focusing on polarization research for fusion experiments and reactors, and has developed techniques like signal-reversing cavity ring-down polarimetry for precision measurements. His recent publications highlight trends in spin-polarized hydrogen production, cavity-based chiral sensing, and parity nonconservation studies. These works intersect atomic physics, quantum optics, and nuclear fusion, with methodologies involving laser excitation, relativistic plasmas, and advanced spectroscopic techniques. Scientific Awards: ERC Starting Grant (2008) Rakitzis has contributed to experimental techniques and theoretical frameworks in spin polarization and photodissociation, securing grants and advancing polarized beam applications. His research impacts fusion energy, quantum sensing, and fundamental symmetry studies.
Zoltán Harman is a Leading Scientist at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, Germany, and is affiliated with Heidelberg University. He conducts cutting-edge research in atomic physics, quantum electrodynamics, and precision measurements, particularly using highly charged ions and Penning trap techniques. He holds a habilitation in physics from Heidelberg University and regularly lectures there on advanced topics such as quantum electrodynamics and theoretical physics. Research Interests: Quantum Electrodynamics (QED) in strong fields Precision spectroscopy of highly charged ions g-factor measurements and tests of fundamental physics Development of atomic clocks using highly charged ions Determination of fundamental constants (e.g., electron mass, fine-structure constant) Searches for new physics beyond the Standard Model, including fifth forces Neutrino mass determination via Penning trap measurements His recent publications (2024–2025) focus on high-precision g-factor measurements in ions like tin and beryllium, two-loop QED calculations, King plot analyses for new boson searches, and neutrino mass studies. These works appear in top journals such as Nature , Physical Review Letters , and Science , reflecting his leadership in precision atomic physics. Scientific Awards and Grants: Postdoctoral scholarship from the Max Planck Society (2005–2007) EMMI Visiting Professor Scholarship (2012, 2013) Erasmus student scholarship (1999–2000) Primary investigator of the ISOQUANT Collaborative Research Centre (SFB1225) Teaching and Advising: Harman has been a regular lecturer at Heidelberg University since 2008, teaching courses in quantum electrodynamics, theoretical physics, and experimental physics. He co-organizes advanced lecture series and supervises student research projects, including poster sessions and talks. He is also a lecturer in the International Max Planck Research School on Quantum Dynamics. Research Group and Collaborations: Harman is a key member of the quantum dynamics group at MPIK, led by Prof. Christoph H. Keitel. His work involves close collaboration with experimental teams at MPIK, GSI, and Heidelberg University, combining theoretical and experimental efforts in precision physics. He is actively involved in major projects such as PENTATRAP and ALPHATRAP, which aim to push the limits of atomic and nuclear measurements.
Professor Daniele Faccio is Professor of Quantum Technologies at the University of Glasgow's School of Physics & Astronomy since December 2017. He also serves as adjunct professor at the University of Arizona and was elected Fellow of the Royal Society of Edinburgh in 2017. Previously, he was at Heriot-Watt University (2010-2017) and has held visiting positions at MIT and ICFO, Barcelona. Professor Faccio leads the Extreme Light Group, focusing on quantum technologies applied to imaging and sensing. His research spans quantum-enhanced imaging through complex media, photon transport in biological tissues, and analogue gravity phenomena where intense laser pulses create artificial black holes and 'expanding universes' in laboratory settings. His work bridges fundamental physics with practical applications in biomedical imaging, security, and quantum information processing. Recent publications reveal a strong trend toward quantum-enhanced imaging techniques, machine learning applications in optical sensing, and biomedical applications of advanced optical technologies. His research integrates quantum optics, computational imaging, and photonics to develop novel sensing modalities with applications ranging from non-invasive medical diagnostics to quantum information processing. Professor Faccio has received numerous prestigious awards including the Philip Leverhulme Prize in Physics (2015) and the Royal Society of Edinburgh Senior Public Engagement Medal (2017). He was an ERC fellow from 2012-2017 and a Marie-Curie fellow at ICFO, Barcelona. As principal investigator, Professor Faccio has secured significant research funding supporting his interdisciplinary team. His work on quantum imaging, analogue gravity, and computational optics has attracted substantial grant support from major research councils. He actively mentors postdoctoral researchers and PhD students in the interdisciplinary field spanning physics, engineering, and computational science. The Extreme Light Group maintains state-of-the-art laser laboratories with capabilities in ultrafast optics, quantum optics, and computational imaging. Current projects focus on quantum-enhanced imaging for biomedical applications, non-line-of-sight imaging through scattering media, and exploring fundamental physics through optical analogues of gravitational phenomena.
Calvin R. Howell is a Professor of Physics at Duke University within the Trinity College of Arts & Sciences. Since 2001, he has held faculty positions at Duke, and in 2025 became the Director of the Triangle Universities Nuclear Laboratory (TUNL), a position he previously held from 2006 to 2016. His academic career at Duke includes progression from Instructor (1984-1985) to Assistant Professor (1985-1992), Associate Professor with Tenure (1992-2001), and ultimately Professor of Physics (2001-present). Professor Howell's research is centered on experimental nuclear physics with emphasis on the quantum chromodynamics (QCD) description of low-energy nuclear phenomena. His work focuses on structure properties of nucleons and nuclei and reaction dynamics in few-nucleon systems. The macroscopic properties of nucleon structure and the residual strong nuclear force between neutrons and protons in nuclei emerge from QCD at distances where the color interactions between quarks and gluons are strong. His research spans multiple areas including neutron scattering, photonuclear reactions, fission product yields, and precision nuclear physics measurements. Analysis of Professor Howell's recent publications (2021-2025) reveals a strong focus on fission product yield measurements across various actinide isotopes (235U, 238U, and 239Pu) using both neutron-induced and photon-induced fission techniques. His work combines experimental precision with applications in nuclear energy, nuclear security, and fundamental nuclear physics. Additional research threads include neutron-neutron interactions through deuteron breakup experiments, development of novel instrumentation like the HIFROST Dilution Refrigerator, and applications of nuclear physics techniques to plant biology through projects like PhytoPET. Professor Howell has received significant recognition including: Dean's Diversity Award (2016) Samuel DuBois Cook Award for Service (2008) Fellow of the American Physical Society (2006) He has secured substantial research funding with current grants including NEUTRON SCATTERING EXPERIMENTS FOR ACTINIDES USING MONOENERGETIC NEUTRON BEAMS (2025-2028), Alfred P. Sloan Foundation Graduate School Award (2017-2027), and multiple Department of Energy projects. His leadership extends to directing the REU Site: Undergraduate Research in Nuclear Particle Physics at TUNL and Duke (2022-2027). Professor Howell has also made significant service contributions, chairing the Tom Bonner Prize Committee for the APS Division of Nuclear Physics and serving on the Board of Trustees of the Southeastern Universities Research Association (2016-2019). As Director of TUNL, Professor Howell leads a major nuclear physics research facility that facilitates collaboration between North Carolina's Research Triangle Universities. His laboratory work includes the High Intensity Gamma-ray Source (HIGS) facility, where many of his photonuclear experiments are conducted. He has also been instrumental in developing interdisciplinary applications of nuclear physics, particularly in plant biology research through projects like PhytoPET, a modular positron emission tomography system designed specifically for plant imaging.
Sinead O'Keeffe is a Research Fellow at the University of Limerick in the Faculty of Science and Engineering , specifically within the Department of Electronic and Computer Engineering . Her research bridges the technical domain of optical fiber sensor development with critical applications in radiation therapy and sports medicine. Primary Research Themes Medical radiation dosimetry using optical fiber sensors Brachytherapy dose monitoring systems Sports injury prevention in Gaelic football and running Mental health literacy in rural farming communities Key Technical Contributions Development of scintillation-based dosimeters Characterization of perfluorinated polymer fibers 3D printed sensor systems for clinical and rehabilitation applications Interdisciplinary Applications Prostate cancer radiotherapy dose measurement Mental health intervention programs for athletes Work-family conflict analysis in Irish farming Email: sinead.okeeffe@ul.ie
Prof. Olga Smirnova is a leading researcher at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy, heading the Strongfield Theory Group. Her work focuses on ultrafast phenomena, attosecond science, and quantum control in strong laser fields. She specializes in chiral dynamics, valleytronics, and high-harmonic generation, with contributions to understanding spin polarization and enantiosensitivity in molecular systems. Research interests include manipulating light-matter interactions at attosecond timescales, exploring topological photonics, and developing novel spectroscopic techniques like TACOS (Terahertz-Assisted Chiro-Optical Spectroscopy). Her theoretical advancements bridge fundamental physics and applications in chiral discrimination, ultrafast imaging, and valleytronics in 2D materials. Recent studies highlight discoveries such as multi-THz quantum beats in superfluorescent emission and polarization-shaped control of valley polarization in MoS 2 . Her work frequently interfaces with experimental groups, driving advancements in free-electron laser technologies and attosecond interferometry. Awards: Ahmed Zewail Award in Ultrafast Science and Technology (2020) Collaborations: Extensive international partnerships with institutions like DESY, Lund University, and the University of Rostock. Labs/Groups: Strongfield Theory Group at MBI, focusing on theoretical and computational modeling of ultrafast processes in intense laser fields.
Alex Alvarado is a Full Professor in the Signal Processing Systems department at Eindhoven University of Technology (TU/e), leading the Information and Communication Theory Lab (ICT Lab). He is also affiliated with TU/e's Center for Wireless Technology in Eindhoven. His academic career includes roles as a Senior Research Associate at University College London (2014–2016), Marie Curie Intra-European Fellow (2012–2014), and Newton International Fellow (2011–2012) at the University of Cambridge. Alvarado is a Senior Member of the IEEE and has held editorial and committee positions in major conferences like OFC and ECOC. Alvarado holds an Electronics Engineer degree (2003) and MSc (2005) from Universidad Técnica Federico Santa María, Chile, followed by a Licentiate of Engineering (2008) and PhD (2011) from Chalmers University of Technology, Sweden. His research focuses on high-speed secure data transmission in optical and wireless systems, emphasizing energy-efficient algorithms and theoretical limits of telecommunication systems. Key areas include communication theory, information theory, optical fiber systems, and nonlinear interference mitigation. His recent articles explore advanced modulation formats, machine learning applications for channel estimation and decoding, and innovations in free-space optics and MIMO systems. This work contributes to UN Sustainable Development Goals related to affordable and clean energy, industry innovation, and responsible consumption through energy-efficient communication solutions. Scientific Awards: ERC Starting Grant (2018) NWO VIDI Grant (2016) 2015 Journal of Lightwave Technology Best Paper Award 2015 IEEE Exemplary Reviewer Award 2018 and 2023 Asia Communications and Photonics Conference Best Paper Awards 2019 Optoelectronics and Communications Conference Best Paper Award Alvarado's advising contributions include supervising 12 research works. His grants include NWO VIDI and ERC Starting funding. He leads projects like NESTOR (Next-gen optical networks) and LaiQa (Quantum Key Distribution). His lab, the ICT Lab, drives theoretical and applied research in communication systems.
