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Ralf JaumannView profile

Professor

• Planetary Geology
• Remote Sensing
• Mars Exploration
• +3 more

Ralf Jaumann is a Professor at the Free University of Berlin within the Institute of Geological Sciences, Department of Planetary Sciences and Remote Sensing . He serves as Deputy Director of the Institute of Planetary Research and previously led the Planetary Geology Department at the German Aerospace Center (DLR) in Berlin-Adlershof until January 2020. As Principal Investigator of the High Resolution Stereo Camera (HRSC) on ESA's Mars Express mission (2013-2021), he has significantly contributed to Mars geology studies. Co-PI of Mastcam-Z on NASA's Mars 2020 mission Co-I on instruments for Rosetta , Cassini , Dawn , and ExoMars missions Coordinated global Mars color mosaics and long-term surface change detection using HRSC data His research focuses on planetary geology , remote sensing , and space mission instrumentation , particularly analyzing geological processes on Mars, asteroids, and icy satellites. Recent publications examine spectral properties of asteroid regolith, Martian aeolian processes, and hydration dynamics on the Moon. Despite his extensive involvement in mission operations, no specific student advisement records or scientific awards are mentioned in the provided data. Jaumann teaches Planetary Exploration: Space Missions and Planetologie Literaturseminar at the graduate level.

Meng CuiView profile

Associate Professor

• Neurophotonics
• Biomedical Imaging
• Adaptive Optics
• +3 more

Meng Cui is an Associate Professor in the Department of Electrical and Computer Engineering and Biology at Purdue University. He received his PhD in Physics from the University of Michigan at Ann Arbor and served as a Janelia Lab Head at Howard Hughes Medical Institute (2010–2015). His research focuses on neurophotonics and biomedical imaging, particularly on developing transformative technologies for deep brain imaging and multiscale neural interface. Current Affiliation: Purdue University Alumni Affiliation: Howard Hughes Medical Institute Education: PhD in Physics (University of Michigan at Ann Arbor) His research has received major NIH grants including the BRAIN Initiative U01 and R01 awards. Key inventions include the COMPACT (Clear Optically Matched Panoramic Access Channel Technique), Optical Gearbox, and GTAO (Geometric Transformation Adaptive Optics), which significantly advance deep tissue imaging and high-speed neural recording. His lab has produced 15+ high-impact publications in journals like Nature Methods , Nature Communications , and Optics Express , covering neurophotonic tools, adaptive optics, computational imaging, and wavefront engineering. Collaborations span institutions including UCSD, University of Michigan, and UT Southwestern. Scientific Awards: Purdue Faculty Scholar (2025), Hitachi High-Tech Best Presentation Award (2023), NIH Grants (2024–2019) Current Students: Jiaxuan Xu, Yuting Li, Hehai Jiang, Jianian Lin, Chenmao Wang, Shiyi Sun Notable Alumni: Lingjie Kong (Tsinghua), Jung-Hoon Park (UNIST), Reto Fiolka (UT Southwestern) The Cui Research Group operates in the Bindley Bioscience Center, emphasizing the synergy of teaching, research, and technology development. Recent projects include high-throughput imaging systems, ultra-low light videography, and whole mammalian brain neurophotonic interfaces.

Matthias JägerView profile

Researcher

• Optical Fiber Technology
• Photonics
• Laser Physics
• +3 more

Dr. Matthias Jäger is a Researcher in the Department of Fiber Photonics at the Leibniz Institute for Photonic Technology (IPHT) . His work focuses on advanced optical fiber development, particularly in doped materials and nonlinear laser dynamics. Core technologies: Thulium/Yb/Ho-doped fibers, periodic shadowing for stray light suppression, nonlinear loss management Instrumentation: High peak power laser systems, fluorescence lifetime analysis, multicore emission profiling Research interests span laser physics, materials science, and optical engineering. Recent publications highlight breakthroughs in: Directional stability control for fiber ring lasers (2021-2024) Hybrid Tm:YAG crystal-derived fiber fabrication (2022) Nanoparticle-doped optical fibers (2024) 2 µm eye-safe laser systems (2024) Pr3+-doped nanocrystal fiber integration (2024) Thulium concentration optimization for laser efficiency (2025) His work demonstrates expertise in fiber fabrication methods including: Modified Chemical Vapor Deposition (MCVD) Powder-sinter technology Molten-core processing REPUSIL fiber drawing

Wolfram HelmlView profile

Assistant Professor

• Ultrafast Electron Dynamics
• Attosecond Physics
• X-ray Spectroscopy
• +7 more

Jun.-Prof. Dr. Wolfram Helml is a faculty member in the Department of Physics at the Technical University of Dortmund, where he leads a research group at the Center for Synchrotron Radiation (DELTA). His work focuses on probing ultrafast electron dynamics at the attosecond scale using advanced X-ray spectroscopy techniques. His research interests include attosecond physics , ultrafast electron dynamics , and time- and angle-resolved X-ray spectroscopy . He employs X-ray free-electron lasers such as LCLS (USA) and European XFEL (Hamburg) to visualize fundamental excitation processes in atoms, molecules, and biological systems. By combining circularly polarized laser fields with X-ray pulses, his team constructs streaking cameras capable of measuring electron emission with extreme temporal precision. The recent publications highlight a growing integration of artificial intelligence for real-time analysis of ultrashort X-ray pulses, developed in collaboration with researchers at the University of Kassel. These innovations aim to enable online, time-resolved spectroscopy at large-scale FEL facilities. Scientific contributions include: First demonstration of attosecond streaking with FEL pulses at LCLS (2018) Development of AI-based tools for pulse characterization (2022) He is actively involved in experimental development at DELTA and future applications at European XFEL. No information is available regarding students or formal advising roles. He is based in Room DELTA 01 at the Maria-Goeppert-Mayer-Str. 2 facility in Dortmund.

William R. DonaldsonView profile

Professor

• Optics
• Electrical Engineering
• Semiconductor Diagnostics
• +4 more

Dr. William R. Donaldson is a Professor in the Department of Electrical and Computer Engineering and Senior Scientist at the Laboratory for Laser Energetics (LLE) at the University of Rochester. He holds a BS in Physics and Mathematics from Carnegie-Mellon University (1976) and a PhD in Electrical Engineering from Cornell University (1984). His career includes research in photoconductive switches, streak-camera development, and optical diagnostics of semiconductors and biological molecules. Research Interests: Physics of photoconductive switches Streak-camera systems Optical response of high-temperature superconductors Fluorescence analysis of biological molecules Dr. Donaldson is affiliated with professional societies including the American Physical Society and IEEE. He holds four patents and has contributed to numerous scientific publications.

Roberta CroceView profile

Professor

• Biophysics
• Photosynthesis
• Light-Harvesting Complexes
• +3 more

Prof. Roberta Croce is a Full Professor in the Faculty of Science at Vrije Universiteit Amsterdam, affiliated with the Department of Biophysics Photosynthesis/Energy and the LaserLaB - Energy research group. Her expertise spans biophysics, photosynthesis, and light-harvesting mechanisms in plants and cyanobacteria. She serves as President of the International Society of Photosynthesis Research (2023–present) and Executive Editor of BBA-Bioenergetics (2024–2025). Her research focuses on energy transfer dynamics, photoprotection mechanisms, and adaptation strategies in photosynthetic organisms. Key interests include far-red light utilization, chlorophyll variants, and optimizing photosynthesis for crop yield enhancement. She has supervised 13 PhD theses and contributes to editorial roles in top journals like The Plant Cell and Science . Recent articles explore light acclimation in Acaryochloris marina, chlorophyll d’s role in photoprotection, and structural insights into allophycocyanin variants. Her work addresses global challenges in energy and sustainable agriculture, aligning with UN Sustainable Development Goals. Awards: Member of KNAW and Royal Holland Society of Sciences and Humanities. Grants/Advising: Supervised 13 PhD students; research supported by international collaborations. Labs/Teams: Active in LaserLaB - Energy, focusing on bioenergetics and photosynthetic systems.

Ferenc KrauszView profile

Professor

• Attosecond Physics
• Ultrafast Laser Science
• Quantum Electronics
• +12 more

Ferenc Krausz is a Hungarian-Austrian physicist and Director at the Max Planck Institute of Quantum Optics in Garching, where he leads the Attosecond Physics Division. He is also a Professor of Experimental Physics at Ludwig-Maximilians-Universität München (LMU). His groundbreaking work in generating and measuring attosecond light pulses revolutionized our ability to observe electron dynamics in real time. He was awarded the 2023 Nobel Prize in Physics for this achievement, alongside Anne L'Huillier and Pierre Agostini. Born: 1962, Mór, Hungary Doctorate: Quantum Electronics, Vienna University of Technology (1991) Habilitation: 1993, Vienna University of Technology Professor: Technical University of Vienna (1999) Director: Max Planck Institute of Quantum Optics (2003–present) Chair: Experimental Physics, LMU Munich (2004–present) Ferenc Krausz's research centers on attosecond physics, enabling the real-time observation of electron motion within atoms and molecules. His work blends ultrafast laser science, quantum optics, and solid-state physics to explore fundamental processes in nature. He has pioneered techniques such as high-harmonic generation and attosecond metrology, with applications in understanding chemical reactions at the electronic level. His current interests extend into medical diagnostics, where he develops infrared fingerprinting of blood to detect diseases like cancer and diabetes long before symptoms appear. He also investigates light-wave electronics, aiming to control electric currents at optical frequencies to enable computers up to 100,000 times faster than today’s devices. Krausz’s scientific awards reflect his transformative contributions to physics. He received the FWF START Award in 1996, enabling him to establish his research group at TU Wien. In 2002, he was awarded the FWF Wittgenstein Prize, Austria’s most prestigious research grant. The pinnacle of recognition came in 2023 with the Nobel Prize in Physics for his foundational work in attosecond physics. Krausz has led major research initiatives, including the FWF-funded Special Research Area 'Advanced Light Sources (ADLIS)' and the development of the attosecond streak camera. He emphasizes the importance of scientific freedom, international collaboration, and curiosity-driven research. His leadership at the Max Planck Institute fosters innovation in both fundamental and applied physics. Krausz’s work began at the Vienna University of Technology, where his team achieved the first generation and measurement of attosecond pulses on September 8, 2001. This breakthrough, conducted in the basement laboratories of TU Wien, laid the foundation for attosecond science. He continues to lead a vibrant research team at the Max Planck Institute, pushing the boundaries of ultrafast science and its societal applications.

Wolfgang KieferView profile

Professor

• Physical Chemistry
• Spectroscopy
• Raman Spectroscopy
• +4 more

Prof. Dr. Dr. h.c. Wolfgang Kiefer is a renowned physicist and chemist leading the Institute of Physical and Theoretical Chemistry at Julius-Maximilians-Universität Würzburg. His roles include serving as Dean, ProDean, and member of key university committees (Haushaltkomission, Rechnerkommission). His expertise focuses on developing advanced physical and chemical instrumentation, particularly in spectroscopy and laser technology. Research interests center on Raman spectroscopy applications, including laser-trapped microparticles, nonlinear phenomena, and surface-enhanced techniques. He pioneered methodologies for stray light suppression and temporal contrast improvement in spectroscopic measurements. His work intersects with materials science, nanotechnology, and biomedical analysis, leveraging computational tools like DFT simulations. Notable contributions include foundational studies on Raman scattering mechanisms, instrumentation innovations, and collaborative projects with international scientists. Over 40+ publications span 2006-2025, emphasizing interdisciplinary advancements in spectroscopy and laser systems. While no explicit awards are listed, his honorary doctorate (Dr. h.c.) reflects academic recognition. No advising or grant details are provided in texts. His institute serves as a hub for cutting-edge research in physical chemistry, hosting advanced labs for femtosecond spectroscopy and nanomaterial analysis. Ongoing work explores quantum effects in condensed matter and biomedical applications of Raman techniques.

Peter MutsaersView profile

Assistant Professor

• Accelerator Technology
• Quantum Physics
• Ultrafast Electron Microscopy
• +3 more

Peter Mutsaers is an Assistant Professor at the Department of Applied Physics and Science Education, Eindhoven University of Technology (TU/e). He is affiliated with the Coherence and Quantum Technology group and contributes to the Core Center for Quantum Materials and Technology Eindhoven (ICMS). Research focuses on accelerator technology, ultrafast electron microscopy, and compact X-ray sources Key projects: Dynamic Phase Space Shaping (DPSS) for ultrafast electron microscopy, Smart*light (ultrabright X-ray source), and ICS-SAXS (Inverse Compton Scattering X-ray metrology) His work bridges quantum technology and biomedical applications, such as studying atherosclerosis via cellular element analysis. Recent publications highlight advancements in femtosecond-level electron beam diagnostics, photodiode-based time-zero alignment, and table-top Inverse Compton Scattering sources for semiconductor metrology. Research trends: Integration of RF cavity physics with quantum optics, development of ultrafast imaging tools, and optimization of X-ray metrology for industrial applications. He teaches courses in Subatomic Physics Experimental Physics I/III Accelerators and Beams Grants include support from the Dutch Research Council (NWO), Thermo Fisher Scientific, and Holland High Tech | TKI HSTM via the PPP Innovation Scheme.

Morgan HibberdView profile

Research Fellow

• Terahertz Technology
• Accelerator Physics
• Spintronics
• +3 more

Dr. Morgan Hibberd is a Research Fellow at the University of Manchester's Accelerator Physics Group, affiliated with the Photon Science Institute. He holds a PhD and MPhys in Physics from the University of Manchester (2012–2016). His research focuses on terahertz technology, accelerator physics, spintronics, and dielectric materials, with applications in electron beam manipulation, waveguide design, and polarization control. Recent work includes cryogenically cooled terahertz pulse generation, sub-relativistic electron beam acceleration via tapered waveguides, and spintronic emitter development for tunable terahertz radiation. Hibberd collaborates extensively on projects combining photonics, magnetism, and accelerator science, contributing to advancements in high-energy beam diagnostics and nonlinear optics. His research outputs span 19 peer-reviewed articles, with contributions to journals like Applied Physics Letters and Physical Review Accelerators and Beams . While no formal awards are explicitly listed, his work reflects sustained innovation in terahertz-driven systems and accelerator technology. Hibberd currently supervises PhD candidates and advises on experimental setups involving terahertz sources and diagnostic tools. His lab affiliations include the Accelerator Physics Group and Photon Science Institute, where he explores future applications in compact particle acceleration and advanced material characterization.

• Ultrafast Electron Diffraction
• Molecular Dynamics
• Photodissociation
• +3 more

Martin Centurion is a Professor in the Department of Physics and Astronomy at the University of Nebraska-Lincoln. His research focuses on ultrafast electron diffraction and the imaging of molecular dynamics, particularly photodissociation and rotational wavepacket evolution. He has developed high-repetition-rate ultrafast electron diffraction techniques to achieve high spatiotemporal resolution for studying nuclear motions in molecules. His recent publications (2024–2020) highlight advancements in liquid-phase and gas-phase electron diffraction, conformer-specific photochemistry, quantum state tomography, and relativistic electron beam applications. These works often involve collaborations across institutions and utilize tabletop electron guns, streak cameras, and high-energy electron pulses (MeV) to explore coherent nuclear motion and reaction mechanisms. Key research themes: Ultrafast phenomena, molecular structural dynamics, laser spectroscopy, quantum mechanics, and photodissociation. Technical innovations: High-repetition-rate electron diffraction, velocity matching with tilted pulses, and dispersion compensation for attosecond pulses.