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Linda YoungView profile

Professor

• Atomic, Molecular and Optical Physics
• X-ray Spectroscopy
• Ultrafast Science
• +3 more

Linda Young is an Argonne Distinguished Fellow and Professor in the Department of Physics and James Franck Institute at the University of Chicago. She is a leader in atomic, molecular, and optical physics, with a focus on fundamental X-ray interactions, nonlinear spectroscopy, and ultrafast probes of nonequilibrium systems. Her work bridges theoretical and experimental approaches, leveraging facilities like Argonne's Advanced Photon Source and SLAC's Linac Coherent Light Source. She holds a S.B. from the Massachusetts Institute of Technology (1976) and a Ph.D. from the University of California, Berkeley (1981). Her research explores intense X-ray-matter interactions, nonlinear X-ray spectroscopy, and coherent ultrafast X-ray methods. Key interests include developing novel probes for atomic and molecular dynamics, advancing free-electron laser applications, and studying photon-induced processes in extreme conditions. Her publications emphasize X-ray free-electron lasers, ultrafast chemical processes, and theoretical modeling of ionization dynamics, reflecting a consistent focus on pushing the boundaries of time-resolved X-ray science. Awards and honors include: Honorary Doctorate, Uppsala University (2023) Helmholtz International Fellowship (2017) Argonne Distinguished Fellow (2007) University of Chicago Distinguished Performance Award (2007) Fellow, American Physical Society (2000) She actively contributes to synchrotron and XFEL facilities worldwide, serving on advisory boards for institutions like the Paul Scherrer Institute and European XFEL. Her leadership includes chairing the Division of Atomic, Molecular and Optical Physics at the American Physical Society.

Dario MassabòView profile

Associate Professor

• Environmental Physics
• Biophysics
• Cultural Heritage Physics
• +3 more

Dario Massabò is an Associate Professor at the University of Genoa , affiliated with the Department of Physics - DIFI within the School of Mathematical, Physical and Natural Sciences . He teaches courses including Archaeometry , Medical Physics , and Atmospheric Physics . Member of School Council Member of Department Board His research focuses on environmental physics , particularly carbonaceous aerosols , air pollution , and cultural heritage conservation . Recent work includes studies on fuel combustion emissions, plant interactions with pollutants, and development of advanced aerosol measurement instruments. Publications show expertise in atmospheric simulation chambers , optical properties of aerosols , and source apportionment using 14C analysis. Key collaborations include environmental monitoring projects in the Po Valley region.

Robert GrisentiView profile

Professor

• Nuclear Physics
• Atomic Physics
• Cryogenic Liquid Microjets
• +6 more

Dr. Robert Grisenti is a Professor at the Institute for Nuclear Physics (Institut für Kernphysik) at Johann Wolfgang Goethe University Frankfurt. His research focuses on cryogenic liquid microjet technology and its applications in atomic, plasma, and condensed matter physics, with significant contributions to storage ring experiments and laser-plasma interactions. His primary research interests include: Cryogenic liquid microjet generation for scientific applications Atomic physics experiments at storage rings, particularly at the FAIR facility and GSI Relativistic laser-plasma generation using cryogenic droplet targets Investigation of structural transformations in supercooled liquids Superfluidity in highly supercooled molecular hydrogen and helium Dr. Grisenti's work demonstrates innovative approaches to producing stable cryogenic liquid jets and droplet beams, enabling studies of quantum phenomena and phase transitions at unprecedented time scales. His group developed specialized glass capillary nozzles that produce highly stable liquid jets with pointing stability better than 1 μm, overcoming challenges of jet freezing at cryogenic temperatures. His publication record shows consistent focus on cryogenic microjet technology since the early 2000s, with significant papers in Physical Review Letters and Europhysics Letters. His research bridges experimental nuclear physics, quantum mechanics, and fluid dynamics, with applications ranging from soft X-ray generation to femtosecond crystallography and potential medical applications in ion-based cancer therapy. Dr. Grisenti maintains active collaborations with major research facilities including GSI (Helmholtz Centre for Heavy Ion Research), FAIR, XFEL, and the Helmholtz Institute Jena. His laboratory features specialized vacuum chambers for cryogenic microjet production and characterization, including advanced imaging systems for beam analysis.

• Atomic Physics
• Laser Physics
• Plasma Physics
• +3 more

Prof. Dr. Ingo Hofmann is a Professor and member of the Scientific Council at the Helmholtz Institute Jena, a joint venture between GSI Helmholtzzentrum für Schwerionenforschung GmbH and Friedrich Schiller University Jena. Based at GSI in Darmstadt, Germany, he maintains an active research profile with office contact details including Room C26.2.001 and telephone +49 6159 71-2409. His research spans critical domains of modern physics: Atomic interactions with highly charged ions and X-rays Relativistic laser-plasma theory and quantum dynamics Strong-field physics in high-intensity laser regimes Advanced X-ray spectroscopy and polarimetry Quantum logic applications for heavy ions Photon source development from EUV to mid-IR The Helmholtz Institute Jena operates cutting-edge facilities including POLARIS, JETI40, and JETI200 lasers alongside the HITRAP and CRYRING@ESR storage rings. These enable pioneering work in relativistic quantum dynamics and photon science, with Prof. Hofmann contributing to the institute's leadership in high-energy density physics research through collaborations with DESY, HZDR, FAIR, and XFEL.

• Laser Plasma Physics
• Quantum Field Theory
• Atomic Physics
• +3 more

Shreyas Ramakrishna serves as a Researcher at the Helmholtz Institute Jena, a collaborative institution established by the Helmholtz Association and Friedrich Schiller University Jena (FSU Jena), with physical presence at Helmholtzweg 4 in Jena, Germany. His research spans critical domains in advanced photon science, including: Relativistic interactions in laser plasma systems Quantum electrodynamics under extreme field conditions Atomic structure analysis using highly charged ions High-precision X-ray polarimetry techniques Development of EUV to mid-IR photon sources Quantum logic applications in heavy-ion spectroscopy No scientific awards or honors were documented in the source material. While affiliated with the Research School of Advanced Photon Science offering thesis opportunities at FSU Jena, specific details regarding student supervision, grant funding, or laboratory leadership remain unreported in the available documentation.

Victor H. S. KwongView profile

Professor

• Plasma Physics
• Atomic Physics
• Laser Physics
• +5 more

Professor Victor H. S. Kwong is a faculty member at the Department of Physics, University of Nevada, Las Vegas. His research focuses on atomic processes in plasmas, with applications in fusion energy and astrophysics. Interdisciplinary training: Physics/Chemistry (Queen's), Atomic Physics (Windsor), Laser Physics (Toronto), Astrophysics (Harvard) Research collaborations: Dr. Zuyun Fang (laser spectroscopist) and Dr. W. H. Parkinson (Harvard-Smithsonian Center for Astrophysics) Research interests span multiple domains: Atomic Processes in Plasmas : Charge transfer collisions, metastable state dynamics, and ion-neutral interactions Laser-Plasma Interactions : Diagnostic techniques, UV/soft x-ray emissions, and thin film deposition Instrumentation Development : Ion storage facilities, pulsed ion beam systems, and laser-induced fluorescence setups Environmental Applications : Ceramic thin film barriers for nuclear waste containment Research trends derived from publications indicate sustained focus on: Charge transfer cross-section measurements (He+ with N2/CH4/CO) Multiply charged ion behavior (Si4+, N2+, O2+) Laser-based diagnostic techniques for plasma properties Radiative decay rate studies in astrophysical contexts Historical development of trace element detection methods Research facilities developed include: Laser Ablation Ion Storage Facility Laser Ablation Pulsed Ion Beam System Laser Induced Fluorescent Facilities Atomic Hydrogen Source Ceramic Thin Film Deposition Setup

Steen MadsenView profile

Professor

• Therapeutic applications of light and ultrasound in oncology
• Photodynamic therapy
• Sonochemical internalization
• +6 more

Steen Madsen, Ph.D., is Professor and Chair of the Department of Health Physics and Diagnostic Sciences in the Integrated Health Sciences unit at the University of Nevada, Las Vegas (UNLV). Since joining UNLV in fall 1997, he has led an internationally recognized translational research program focused on eradicating residual malignant brain tumor cells after surgery using light- and ultrasound-based therapies. Education & Training B.Sc. in Physics and Biology, University of Toronto, Ontario M.Sc. in Health and Radiation Physics, McMaster University, Ontario Ph.D. in Applied Nuclear Physics, McMaster University, Ontario Post-doctoral Fellowship in Photomedicine, Beckman Laser Institute, University of California, Irvine Medical Physics Residency, Washington University School of Medicine in St. Louis Research Focus Dr. Madsen’s laboratory integrates physics, biology, and engineering to develop and refine therapeutic strategies for malignant gliomas. Core investigative themes include: Photodynamic Therapy (PDT) – light-activated destruction of tumor cells using photosensitizers. Sonochemical Internalization (SCI) – ultrasound-triggered release of drugs from carriers. Plasmonic Photothermal Therapy – gold-based nanoparticles generating localized hyperthermia. Macrophage-Mediated Drug Delivery – exploiting tumor-homing macrophages to ferry chemotherapeutics and nanoparticles across the blood-brain barrier. Collectively, these approaches aim to eliminate microscopic tumor remnants in resection margins, thereby improving patient survival and quality-of-life. Publication Trends Between 2015 and 2024, Dr. Madsen’s group published more than 40 peer-reviewed articles. The work demonstrates a clear translational arc: early mechanistic studies on photochemical internalization and nanoparticle uptake have matured into sophisticated in vivo models combining macrophage vectors, gold-silica nanoshells, and ultrasound activation. Recent papers emphasize combinatorial regimens—concurrent photothermal and chemotherapeutic treatment—and the development of fibrin-glue depots for localized drug release. Scientific Honors & Service Fellow, American Society for Laser Medicine and Surgery Editorial Board Member, Lasers in Surgery and Medicine Editorial Board Member, Journal of Environmental Pathology, Toxicology and Oncology Teaching & Mentorship At UNLV, Dr. Madsen teaches undergraduate and graduate courses in radiation physics, radiation biology, imaging physics, and imaging pathology. His trainees routinely advance to medical physics residencies, doctoral programs, and biotechnology R&D roles. Laboratory & Collaborative Networks The Madsen Lab operates within the University of Nevada, Las Vegas School of Integrated Health Sciences, equipped with cell culture, small-animal imaging, and laser/ultrasound therapeutic systems. Collaborative partnerships extend to the Beckman Laser Institute, Washington University in St. Louis, and multiple clinical neuro-oncology centers.

• Molecular simulation
• Computational chemistry
• Rare earth elements
• +3 more

David Cantu is an Associate Professor in the Department of Chemical and Materials Engineering at the University of Nevada, Reno, College of Engineering. Based in the Scrugham Engineering and Mines Building (room 208), he teaches core chemical engineering courses including Computer Applications in Chemical Engineering, Process Control, and Separation Processes. His research spans molecular simulation, computational chemistry, rare earth elements, separations, enzymes, and bioinformatics. He employs advanced computational methods to investigate lanthanide complex structures, protein family evolution, and sustainable separation techniques for critical materials, with particular emphasis on gadolinium and europium systems for medical and environmental applications. Recent publications (2023-2025) demonstrate a dominant focus on lanthanide chemistry through molecular dynamics and X-ray absorption spectroscopy, revealing structural insights into complex stability, magnetic properties, and separation mechanisms. Concurrent work applies submodular optimization to protein sequence analysis and develops sustainable waste management strategies for radioiodine capture. Dr. Cantu's research excellence is recognized through prestigious awards: CAREER Award, National Science Foundation (2021) New Investigator Award, American Chemical Society Petroleum Research Fund (2019) While specific advising details and grant portfolios beyond the cited awards are not documented in source materials, his work integrates computational chemistry with practical separation engineering challenges. Laboratory facilities and collaborative teams are not explicitly described in available documentation.

Hans WeiseView profile

Professor

• Superconducting Accelerators
• X-ray Free Electron Lasers
• Particle Accelerator Physics
• +3 more

Hans Weise serves as a Lead Scientist at Deutsches Elektronen-Synchrotron (DESY), a premier German research center within the Helmholtz Association. He currently leads the European XFEL project at DESY and coordinates the XFEL accelerator consortium, which includes multiple institutes from XFEL partner countries contributing to the European XFEL construction through material and personnel resources. Dr. Weise's research focuses on the operation and further development of superconducting accelerators. His career at DESY spans over three decades, beginning with his doctorate studies at the Technical University of Darmstadt. He has held progressively responsible positions including Coordinator of the TESLA Test Facility Linac, PostDoc in the TESLA Test Facility & SRF Technology division, and Group Leader for the DESY MIN department covering Linear Accelerator, Sources, Kicker & Septa, and FLASH Operation. As the current DESY Project Manager for the European XFEL and Coordinator of the XFEL Accelerator Complex since 2010, Dr. Weise oversees one of the most advanced X-ray laser facilities in the world. His work bridges fundamental accelerator physics with practical large-scale implementation of superconducting technology for scientific applications across multiple disciplines including materials science, chemistry, and biology. Dr. Weise's laboratory and team responsibilities include managing the European XFEL accelerator consortium and coordinating the technical development of superconducting linear accelerator systems. His leadership extends to international collaboration among multiple European research institutions contributing to the XFEL project.

Ankit UdaiView profile

Research Fellow

• Ultrafast Spectroscopy
• Nanomaterials
• Condensed Matter Physics
• +4 more

Dr. Ankit Udai is a Postdoctoral Researcher at IMDEA Nanoscience Institute in Madrid, Spain, joining the institution in July 2024. He is a core member of the X-ray Wave-mixing Spectroscopies (X-WaveS) research group, specializing in ultrafast dynamics and transport phenomena in nanoscale condensed-matter systems using non-linear optical methods and high-energy radiation. His doctoral research was conducted at the Centre for Excellence in Nanoelectronics within the Department of Electrical Engineering at the Indian Institute of Technology Bombay (IIT-B), India. There, he investigated Gallium-Nitride nanostructures—including quantum wells and dots—using ultrafast pump-probe spectroscopy, yielding critical insights for developing faster lasers, LEDs, and photodetectors for optical communication. Dr. Udai's research spans: Ultrafast Spectroscopy (four-wave mixing, transient grating) Nanomaterials (Gallium Nitride, quantum nanostructures) Condensed Matter Physics (charge/spin/phonon transport) Optoelectronics (device efficiency optimization) Element-specific X-ray probing Spatially resolved transport dynamics His current work integrates high-energy radiation with non-linear optical techniques to achieve element-specific responses and nanoscale spatial resolution, directly targeting efficiency improvements in magnetic and opto-electronic data storage and communication devices. No information on scientific awards, student advising, or research grants is provided in the source text. He operates within the X-WaveS group, which pioneers advanced X-ray wave-mixing methodologies for nanoscale investigations.

Michael MartinsView profile

Researcher

• Soft X-ray spectroscopy
• Quantum systems
• Molecular physics
• +7 more

Dr. Michael Martins is a working group leader at the Institute of Experimental Physics within the Faculty of Mathematics, Informatics and Natural Sciences at the University of Hamburg. His research focuses on soft X-ray spectroscopy of small quantum systems, including studies of molecular ions, photocatalytic materials, and dynamic processes in molecules using facilities like FLASH and PETRA III. Develops instruments for spectroscopy at Free-Electron Lasers (FELs) and Synchrotrons Engaged in teaching and mentoring students in physics Part of the DFG-funded Collaborative Research Center (SFB) 925 "Light-induced dynamics and control of correlated quantum systems" His work spans experimental physics, quantum mechanics, and materials science, with applications in energy infrastructure (e.g., hydrogen production) and fundamental understanding of molecular interactions under extreme conditions. The group collaborates with universities in Giessen and Frankfurt, operates ion experiments like PIPE at PETRA III, and seeks students to contribute to projects on molecular ion sources, photokatalysis, high-resolution mass spectrometers, and simulation of photofragmentation processes.

• Semiconductor Radiation Detectors
• Gas Sensing Technology
• X-ray Fluorescence Spectrometry
• +4 more

Göran Thungström serves as Associate Professor in Electronics within the Department of Engineering, Mathematics and Subject Didactics (IMD) at Mid Sweden University in Sundsvall. His research spans semiconductor radiation detectors, gas sensing technologies, and optical instrumentation development. His primary research interests focus on semiconductor radiation detectors for medical and industrial applications, gas sensing technologies for environmental monitoring, and optical instrumentation development. Key research areas include position-sensitive detector systems, X-ray fluorescence spectrometry, thermopile infrared detectors, and process industry sensor development. His work bridges fundamental semiconductor physics with practical industrial applications, particularly in environmental monitoring and process control. His recent publications demonstrate consistent contributions to radiation detection (2020-2023), gas sensing (2022-2024), and optical instrumentation (2019-2023). The research shows a clear progression toward more sensitive detection systems with applications in environmental monitoring, industrial process control, and medical instrumentation. Notable trends include the development of nanoscale heterostructures for gas detection and advanced signal processing techniques for radiation measurement. No scientific awards were documented in the source material. Thungström leads multiple research projects including MEQAL (methane leak detection), Chrome (chromium measurement), and LEAP (large-area energy applications). His collaborations span academia and industry, with frequent partnerships on environmental monitoring and industrial process sensor development. His work demonstrates strong integration between theoretical modeling and practical implementation. His laboratory work focuses on semiconductor detector fabrication, gas sensor development, and optical measurement systems. Current projects emphasize environmental applications including methane detection systems and chromium contamination analysis tools. The research group maintains strong connections with industrial partners in the process industry and environmental monitoring sectors.

• Medical Imaging
• Ophthalmology
• Computer Vision
• +12 more

Sina Farsiu is the Anderson-Rupp Professor of Biomedical Engineering at Duke University, with joint appointments in the Department of Electrical and Computer Engineering and the Department of Computer Science. He serves as a Faculty Network Member of the Duke Institute for Brain Sciences and directs the Vision and Image Processing (VIP) Laboratory. His research spans medical imaging, artificial intelligence, and signal processing with applications in ophthalmology and neurology. Dr. Farsiu's educational background includes: Postdoctoral Scholar in Electrical Engineering, University of California, Santa Cruz (2007) Research Assistant in Electrical Engineering, University of California, Santa Cruz (2001-2005) M.S. from University of Tehran, Iran (2001) B.S. from Sharif University of Technology, Iran (1999) Dr. Farsiu's research focuses on developing advanced imaging techniques and artificial intelligence algorithms for early diagnosis of ocular and neurological diseases. His work specifically targets conditions including age-related macular degeneration, diabetic retinopathy, glaucoma, Alzheimer's disease, and retinopathy of prematurity. His laboratory develops machine learning and deep learning approaches for medical image analysis, with particular emphasis on segmentation, detection, and quantification of anatomical and pathological structures. Additionally, his team investigates signal processing methods to overcome limitations in imaging device resolution, with applications in ophthalmic SD-OCT, digital X-ray mammography, and microscopy. Dr. Farsiu's recent publications demonstrate a strong focus on applying deep learning techniques to ophthalmic imaging challenges. His work spans from fundamental algorithm development to clinical applications across multiple eye diseases. A notable trend is the integration of adaptive optics with optical coherence tomography for unprecedented retinal imaging resolution, enabling cellular-level analysis of retinal structures without traditional adaptive optics systems in some cases. While specific awards aren't detailed in the provided information, Dr. Farsiu holds the prestigious Anderson-Rupp Professorship at Duke University, indicating significant recognition of his scholarly contributions. His editorial role as Deputy Editor for Biomedical Optics Express further demonstrates his standing in the optics and imaging community. Dr. Farsiu leads an active research laboratory with numerous graduate students and postdoctoral fellows. His work is supported by multiple NIH grants and other funding sources that enable the development of innovative imaging techniques and their application to pressing clinical problems. The VIP Laboratory maintains strong collaborations with ophthalmologists and neurologists at Duke and other institutions, facilitating the translation of engineering advances into clinical practice. As director of the Vision and Image Processing (VIP) Laboratory, Dr. Farsiu leads a multidisciplinary team focused on advancing medical imaging technologies. The laboratory maintains strong connections with the Duke Eye Center and the Duke Institute for Brain Sciences, enabling rapid translation of research findings into clinical applications. Current projects involve developing smartphone-based diagnostic tools, improving resolution of ophthalmic imaging devices, and creating AI-powered analysis systems for early disease detection.

Lorna DawsonView profile

Professor

• Forensic Soil Science
• Geoforensics
• Environmental Forensics
• +5 more

Professor Lorna Dawson is the Head of the Centre for Forensic Soil Science at the James Hutton Institute, with over 30 years of experience in soil-plant interactions applied to forensic investigations. She serves as an Honorary Professor in Forensic Science at Robert Gordon University and leads knowledge exchange for environment and soils through SEFARI Gateway. As a CBE awardee for services to soil and forensic science, she has contributed to over 100 forensic cases globally. Head of Forensic Science, James Hutton Institute Honorary Professor, Robert Gordon University SEFARI Gateway Knowledge Exchange Lead Research Focus: Dawson pioneered the use of soil organo-mineral markers in forensics, developing tools like SoilFit (EPSRC) and GIMI for soil characterization. Her work spans geoforensics, microbial forensics, and environmental crime scene analysis, with current projects on single-cell DNA analysis (SCAnDi) and plague ecology (Synergy-Plague). She co-edited foundational texts on geoforensics and established forensic soil SOPs for Brazil. Article Trends: Recent publications emphasize soil's role in human decomposition analysis, microplastic tracking, and geospatial forensic applications. Collaborations highlight European and international networks, including work with police forces, universities, and legal systems. Scientific Recognition: 2018 CBE for forensic soil science RSE James Hutton Medal (2023) Fellowships: RSE (2018), RSA (2017) Advisory Roles: Chair of the Forensic Geology Group (Geological Society, London), Treasurer of IUGS International Forensic Geology Initiative, and committee member of ENFSI Animals, Plants, Soils Traces working group. She actively engages in public science communication, appearing in documentaries, crime novels, and the Royal Institution Christmas Lectures. Labs & Networks: Leads the James Hutton Institute's Soil Forensic Team, coordinates the MiSAFE European microbial forensics project, and contributes to the International Network of Environmental Forensics. Her work integrates with police training programs and the NIST OSAC geo-trace evidence group.

Malin KylanderView profile

Associate Professor

• Sediment Geochemistry
• Paleoclimatology
• Mineral Dust Deposition
• +3 more

Malin Kylander is Associate Professor of Sediment Geochemistry at Stockholm University's Department of Geological Sciences. She leads the S:LAM Lab and operates an ITRAX XRF core scanner for high-resolution sediment analysis. Research focuses on inorganic chemistry in lake sediments and peat Develops proxies for reconstructing past climate change Specializes in Holocene and Last Glacial paleoclimate reconstructions Her outreach initiatives engage high school students in data collection. She directs PhD studies at her department and teaches courses in sedimentary systems and paleoclimatology. Current projects examine storminess patterns in the North Atlantic, mineral dust dynamics in Sweden, and hydroclimatic variations in Lesotho. She also contributes to methodological advances in XRF core scanning and peat sample preparation.