جستجوی استاد راهنمای دانشگاهی

Prof. Dr. Christoph Hugenschmidt is an Associate Professor of Experimental Physics at the Technical University of Munich (TUM), affiliated with the Heinz Maier-Leibnitz Research Neutron Source (FRM II). His work focuses on positron physics, including the development of advanced positron beam techniques and novel measurement methods for analyzing surfaces, crystal defects, and fundamental leptonic systems. Education: Studied physics at the Universities of Freiburg and Bonn, completed his doctorate in 1997. Since joining TUM, he has led the Positron Physics Research Group and pioneered the NEPOMUC intense positron source. Research stays included the Institut Laue-Langevin (Grenoble) and institutions in Japan. Research Interests: Positron-based defect analysis, 3D defect imaging, spin-resolved electronic structure studies, and antimatter experiments. His group develops state-of-the-art tools like scanning positron microbeams and buffer-gas traps for precision measurements. Key Achievements: EU Erasmus+ Fellowship (2020), JSPS Research Award (2014), TUM Silver Badge (2013). Recent publications emphasize positron annihilation spectroscopy, plasma confinement, and defect characterization in materials like tungsten, lithium titanate, and diamond. Grants & Advising: Supervised numerous TUM scholarship holders. Active in international collaborations such as the APEX experiment for electron-positron pair plasmas. Involved in facility upgrades at FRM II and NEPOMUC. Labs/Teams: Leads the Positron Physics Research Group at TUM, collaborating with global institutions on projects like the NEPOMUC beamline and magnetic trapping systems.

• Positron Physics
• Materials Science
• Solid-State Physics
• +۳ مورد دیگر

V. Music is a Research Fellow specializing in ultrafast molecular dynamics using free-electron laser technology. They completed their PhD at the University of Kassel in 2024 with a dissertation titled 'Towards the investigation of ultrafast dynamics in chiral systems using free-electron lasers.' Their primary affiliation appears to be with research groups utilizing facilities like the European XFEL and FLASH (Free-Electron-LASer in Hamburg). Dr. Music's research focuses on the interaction of intense XUV/X-ray radiation with chiral and polyatomic molecules. Their work encompasses photodissociation studies, photoelectron circular dichroism, and ultrafast structural dynamics. They have made significant contributions to understanding wavelength-dependent fragmentation patterns, particularly in chiral systems like 1-iodo-2-methyl-butane. Recent publications demonstrate expertise in advanced experimental techniques including pump-probe schemes, ion velocity-map imaging, and electron time-of-flight spectroscopy. Their research often involves collaboration with major European facilities like the Small Quantum Systems (SQS) instrument at European XFEL and the FLASH facility in Hamburg. Key research trends include the study of chiral photochemistry, molecular fragmentation dynamics under intense X-ray pulses, and the development of methodologies for time-resolved, site-specific investigations of randomly orientated chiral molecules. Their work bridges atomic, molecular, and optical physics with chemical dynamics. Dr. Music has established themselves as a significant contributor to the field of ultrafast molecular science with numerous publications in high-impact journals including Scientific Reports, Physical Review series, and Nature Communications.

• Ultrafast Molecular Dynamics
• Free-Electron Laser Physics
• Chiral Photochemistry
• +۴ مورد دیگر

Professor A. Föhlisch is a prominent researcher at the University of Hamburg's Faculty of Mathematics, Informatics and Natural Sciences, specifically within the Institute for Experimental Physics. With over 50 publications spanning from 2018 to 2025, Föhlisch has established a significant research presence in advanced X-ray spectroscopy techniques at major international facilities including DESY and the European XFEL. The research program focuses on cutting-edge investigations of quantum materials, ultrafast dynamics, and magnetic phenomena using state-of-the-art X-ray methodologies. Föhlisch's research interests encompass X-ray spectroscopy, ultrafast dynamics, quantum materials, magnetism, photochemistry, synchrotron radiation, and free electron lasers. The work explores fundamental questions about electron and spin dynamics at femtosecond timescales, with applications ranging from quantum materials to catalytic processes. A significant portion of the research involves developing and utilizing advanced X-ray techniques to probe matter under extreme conditions and at unprecedented temporal resolutions. Analysis of the publication record reveals a strong focus on developing and applying time-resolved X-ray spectroscopy methods, particularly at the European XFEL facility. The research spans both fundamental investigations of quantum phenomena in materials and more applied studies relevant to energy research and catalysis. Key methodological contributions include advancements in resonant inelastic X-ray scattering (RIXS), transient absorption spectroscopy, and techniques for probing magnetic dynamics with circularly polarized X-rays. The research group maintains strong collaborations with major international facilities including DESY, European XFEL, and various synchrotron radiation sources. This collaborative approach enables access to cutting-edge instrumentation and facilitates interdisciplinary research spanning physics, chemistry, and materials science. The work has significant implications for understanding fundamental quantum phenomena and developing next-generation materials for technological applications.

• X-ray Spectroscopy
• Ultrafast Dynamics
• Quantum Materials
• +۴ مورد دیگر

Prof. Stefan Karsch leads a research group at the Ludwig Maximilian University of Munich (LMU), focusing on ultra-high intensity laser physics and laser-driven particle acceleration. His work bridges advancements in laser technology with applications in plasma physics, photon beam generation, and high-energy-density science at the Max Planck Institute of Quantum Optics (MPQ), where he develops cutting-edge laser systems like ATLAS-3000 and PFS-Pro. Laser-Wakefield Electron Acceleration Multi-GeV Electron Acceleration Hybrid Wakefield Acceleration Advanced Diagnostics for plasma and electron beam analysis Development of high-power laser systems His group investigates the interaction of intense laser pulses with plasmas to create compact, high-brilliance accelerators and X-ray sources. Key projects include improving laser parameters such as temporal contrast, repeatability, and beam quality to enable applications in radiobiology, radiation oncology, and quantum electrodynamics (QED) experiments. The ATLAS-3000 laser system, a 2.5 Petawatt Ti:sapphire laser, and PFS-Pro, a Yb:YAG laser with kilohertz repetition rates, exemplify his contributions to advancing high-intensity laser infrastructure. The group collaborates internationally, including with Oxford University, to develop technologies like plasma-modulated plasma accelerators (P-MoPA). Their work emphasizes scalable, reproducible systems for electron beam injection, acceleration dynamics, and extraction, aiming to transform accelerator physics into practical, high-impact solutions. Research facilities include the Central Laser Facility at MPQ, where Karsch's team pioneered innovations in pulse compression, nonlinear broadening, and optical synchronization. These efforts position LMU and MPQ as global leaders in high-field physics and laser development.

• Plasma Physics
• Laser Acceleration
• High-Intensity Lasers
• +۳ مورد دیگر

Prof. Dr. Rudolf Feile is a Professor in the Department of Physics at Technische Universität Darmstadt, specializing in optical solid-state spectroscopy. His research group employs Raman and Brillouin spectroscopy to investigate excitations in condensed matter systems across diverse energy ranges. His primary research interests include: Optical Spectroscopy Solid-State Physics Raman and Brillouin Spectroscopy High-Temperature Superconductors Condensed Matter Physics Molecular Magnetism Prof. Feile's experimental work utilizes advanced instrumentation including a double-grating monochromator for Raman spectroscopy and tandem Fabry-Perot interferometers for Brillouin studies. His group operates Ar-ion and NdYAG lasers, cryostats covering 2.5K–300K temperatures, and diamond anvil cells enabling high-pressure experiments up to 30 GPa. Research spans carbon nanotube composites, high-Tc superconductors, molecular spin transitions, and high-pressure nitrogen studies, with significant contributions to understanding phonon behavior, charge transfer mechanisms, and phase transitions in complex materials. His publication record (1995–2008) reveals a consistent focus on light scattering phenomena in superconducting superlattices and novel materials, demonstrating expertise in correlating spectroscopic data with fundamental physical properties under extreme conditions. Notable alumni mentored by Prof. Feile include: Katharina Baumgartner Sabine Best Sascha Eschborn Beata Walasek-Höhne He maintains active research contact through rudolf.feile@physik.tu-darmstadt.de.

• Optical Spectroscopy
• Solid-State Physics
• Raman Spectroscopy
• +۳ مورد دیگر

Bernd Schuette is a Research Professor and Department Head of A4 'All-attosecond pump-probe spectroscopy' at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy in Berlin. His research focuses on ultrafast electron dynamics, attosecond science, and advanced laser technologies. Education: PhD in Physics (2011), University of Hamburg Undergraduate studies in Physics (2002–2008), Technische Universität Dresden Erasmus exchange (2005–2006), Lund University, Sweden Research Highlights: He pioneers all-attosecond pump-probe spectroscopy to study electron dynamics in atoms, molecules, and solids. His team developed a plasma lens for focusing attosecond pulses and is advancing a 40 kHz ytterbium laser system for attochemistry studies in low-density gas-phase molecules. Key areas include high-order harmonic generation, ultrafast laser-matter interactions, and extreme-ultraviolet spectroscopy. Awards & Funding: 7th ISUILS Award for Young Researchers (2016) Research Fellowship (2014–2016), Imperial College London Funding from ELI-ALPS for velocity-map imaging endstation development Grants & Projects: Coordinates the 'Attosecond phenomena' project and leads a junior research group (2020–2024). His work is supported by grants for laser system development and plasma lens innovations. Labs & Teams: Manages the A4 department, collaborating on attosecond spectroscopy setups and plasma lens technologies at the Max Born Institute.

• Attosecond Spectroscopy
• Nonlinear Optics
• Ultrafast Dynamics
• +۳ مورد دیگر

Henry Chapman serves as Professor of Physics at the University of Hamburg and leads the Coherent X-Ray Imaging division at the Center for Free Electron Laser Science (CFEL) within DESY (Deutsches Elektronen-Synchrotron). His research exploits X-ray free-electron lasers (XFELs) delivering billion-fold more intense pulses than synchrotrons to determine atomic structures of complex materials including macromolecules at room temperature. His research interests focus on structural biology through advanced X-ray techniques , specializing in radiation damage mitigation via ultrafast pulses, 3D imaging algorithm development, and nanocrystallography. Chapman pioneered methods to "outrun" radiation damage using femtosecond X-ray pulses, enabling atomic-resolution imaging of protein nanocrystals. Current work spans quantum materials characterization, viral capsid analysis, and time-resolved enzymatic studies. Analysis of his recent publications reveals dominant trends in: Development of multilayer Laue lenses for sub-10nm X-ray focusing Serial femtosecond crystallography (SFX) for structural virology Megahertz-rate imaging at European XFEL facilities Statistical approaches to protein dynamics and allostery Advanced sample delivery systems including polymeric-jet stabilization Chapman's scientific recognition includes: Fellow of the Royal Society Fellow of the Optical Society of America Fellow of SPIE (International Society for Optical Engineering) His group develops critical instrumentation like the CFEL TapeDrive sample delivery system and collaborates globally with structural biologists. Current projects emphasize dose-efficient imaging techniques, high-repetition-rate data acquisition at MHz frequencies, and computational methods for single-particle analysis. Chapman directs CFEL's Coherent Imaging Group while maintaining active leadership in DESY's structural biology initiatives.

• Structural Biology
• X-ray Crystallography
• Free-Electron Laser Science
• +۴ مورد دیگر

Sang-Kil Son is a Senior Scientist at the Center for Free-Electron Laser Science (CFEL), Deutsches Elektronen-Synchrotron (DESY), Germany, where he has been working since January 2014. He previously served as a Post-Doctoral Fellow at CFEL from 2010 to 2013, advised by Prof. Robin Santra. His academic background includes a Ph.D. in Physical Chemistry from the University of Kansas (2009), an M.S. from KAIST, Korea, and a B.S. in Chemistry from KAIST. Ph.D. in Physical Chemistry, University of Kansas, United States (2003–2009) M.S. in Physical Chemistry, KAIST, Korea (1997–1999) B.S. in Chemistry, KAIST, Korea (1993–1997) Dr. Son's research focuses on theoretical atomic, molecular, and optical physics, particularly in extreme conditions induced by X-ray free-electron lasers (XFELs). His work spans strong-field physics from optical to x-ray regimes, electronic structure under intense radiation, and the development of computational methods such as XATOM, XMOLECULE, and TDVFD. He is deeply involved in simulating XFEL-matter interactions, including ionization dynamics, radiation damage, and ultrafast electron responses. His publication record includes high-impact articles in journals like Nature , Nature Communications , and Physical Review Letters , with a consistent focus on x-ray science, multiphoton processes, and computational modeling. His recent work emphasizes relativistic effects, ionization potential lowering in plasmas, and the use of radiation damage for structural determination in femtosecond crystallography. Multielectron effects in strong-field ionization XFEL-induced dynamics in matter Quantum mechanical modeling of dense plasmas Development of simulation toolkits (XATOM, XMDYN) Theoretical support for ultrafast imaging Dr. Son actively supervises Ph.D. students, postdoctoral researchers, and summer students at DESY, often in collaboration with Prof. Robin Santra. He has organized major scientific events such as the Ultrafast X-ray Summer School (UXSS) and regularly lectures on x-ray interaction with matter for DESY summer students. He also co-organizes the CFEL Theory Seminar series. His research skills include advanced scientific programming (Fortran, C++, Python), code development for quantum dynamics, and the use of computational chemistry packages like Gaussian, GAMESS, and Octopus. He maintains an active presence in the international scientific community through invited talks and conference presentations.

• Theoretical Atomic Physics
• Theoretical Molecular Physics
• Theoretical Optical Physics
• +۹ مورد دیگر

Thomas Walther is a full Professor of Physics at the Technical University of Darmstadt, where he has served since 2002. Currently Vice President for Innovation and International Affairs (2023–present), he leads the Institute of Applied Physics within the Department of Physics. His career spans quantum optics, laser physics, and atomic physics with significant contributions to quantum information and relativistic ion beam research. Education: PhD (1994), University of Zurich: IR-UV and UV-IR Double Resonance Spectroscopy for Molecular Dynamics Diplom Physik (1990), LMU Munich: Rydberg Atoms in Strong Electric Fields Walther's research centers on quantum optics and laser physics, with emphasis on laser cooling/trapping of neutral atoms (especially mercury), quantum information systems (Bell inequality tests and quantum key distribution), and laser spectroscopy of heavy elements . His group pioneers relativistic ion beam cooling techniques and develops advanced laser systems (cw/pulsed fiber amplifiers, Ti:Sapphire lasers) for environmental sensing applications like ocean temperature profiling via Brillouin LIDAR. Recent publications (2023–2025) reveal three dominant trends: (1) Quantum key distribution network optimization using time multiplexing and entanglement-based protocols, (2) Precision laser spectroscopy of superheavy elements (nobelium, fermium) at storage rings (CSRe, FAIR), and (3) Development of high-power UV lasers with elliptical focusing cavities for nuclear physics applications. These works bridge fundamental quantum mechanics with practical quantum communication and nuclear structure research. Key awards: Athene-Preis für gute Lehre (TU Darmstadt, 2010) Teaching Award, Texas A&M University (2002) Michelson Postdoctoral Prize Lectureship (1997) Walther has secured major grants from DFG, NSF, GIF, and Carl-Zeiss Stiftung to support his quantum optics and laser spectroscopy work. His administrative leadership includes multiple terms as Department Dean (2006–2008, 2013–2014, 2018–2020) and current Vice Presidency. He serves on habilitation committees and international review panels for agencies like the German Science Council. He directs the Laser and Quantum Optics group at TU Darmstadt, collaborating with the Institute of Modern Physics (Lanzhou, China) on relativistic ion beam experiments and with the FAIR facility on future laser cooling projects. The group maintains specialized laboratories for quantum key distribution, magneto-optical atom trapping, and UV laser development.

• Quantum Optics
• Laser Physics
• Atomic and Molecular Physics
• +۵ مورد دیگر

Igor Mishustin is a Professor at the Frankfurt Institute for Advanced Studies (FIAS), specializing in theoretical subatomic physics and astrophysics. He holds a PhD and Doctor of Sciences degree from the Kurchatov Institute and has held prestigious roles such as Carlsberg Professor at the Niels Bohr Institute and Humboldt Awardee at Goethe University. His research focuses on phase transitions in strongly interacting matter, compact stars, and applications of ion beams in cancer therapy. Education: BSc/MSc in Theoretical Physics & Astrophysics from Moscow State University, PhD and Habilitation from Kurchatov Institute. Research interests include relativistic heavy-ion collisions, Bose-Einstein condensation, neutron star dynamics, and laser-driven fusion technologies. Recent work explores nanoantenna-driven proton acceleration and phase diagrams of bosonic matter. Awards: Humboldt Research Award, Carlsberg Foundation Professorship, DAAD Professorship. His contributions span over 200 peer-reviewed articles addressing topics from quark-gluon plasma to medical physics applications. Advising: Supervised numerous PhD/Diploma students across multiple institutions. Active in FAIR collaboration for antiproton and ion research. Lab affiliations include FIAS Theoretical Physics Research Groups and international collaborations in nuclear astrophysics.

• Theoretical Physics
• Astrophysics
• Nuclear Physics
• +۳ مورد دیگر

PD Dr. habil. Harald Schneider serves as the Head of the Spectroscopy department at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR). His research focuses on ultrafast phenomena in nanomaterials, terahertz spectroscopy of semiconductor systems, and nonlinear optical responses in low-dimensional materials. Key contributions include studies on nanowire axial heterostructures, strain effects in GaAs nanowires, and THz control of photoluminescence in layered materials like InSe and MoSe₂. Notable research areas include: Terahertz-driven carrier dynamics in 2D materials Plasmonic effects in doped nanowires Insulator-metal transitions in VO₂ and NbO₂ under high pressures High-mobility electron transport in strained semiconductor nanostructures Publications from 2024-2021 highlight advancements in THz spectroscopy techniques, nonlinear material responses, and optoelectronic device applications. No scientific awards are explicitly mentioned in the provided texts. His work bridges fundamental physics with applied research in nanomaterial characterization and terahertz technology.

• Terahertz Spectroscopy
• Semiconductor Physics
• Nanomaterials
• +۳ مورد دیگر

Prof. Dr. Matthias Kling is a faculty member at the Max Planck Institute of Quantum Optics, leading the Ultrafast Electronics and Nanophotonics research group. His work focuses on pushing the boundaries of light-matter interactions at the nanoscale, with applications in ultrafast electronics and advanced photonics. His research spans attosecond physics, nanophotonics, and ultrafast laser science, leveraging high-intensity X-ray and optical sources to explore electron dynamics on sub-femtosecond timescales. The group investigates phenomena such as light-field-controlled currents and inner-shell lasing, contributing to next-generation electronic and photonic technologies. The recent publications highlight a strong trend in ultrafast control of electrons in solids, nonlinear pulse compression, and attosecond-scale lasing, indicating a focus on both fundamental science and future technological applications in petahertz electronics and quantum optics. Scientific Awards: No awards mentioned in the provided text. Prof. Kling leads an active research group, mentoring students and postdoctoral researchers in a multidisciplinary environment. While specific grants are not listed, the involvement in cutting-edge experiments at major facilities suggests significant funding support. The group fosters international collaborations and contributes to high-impact publications in top-tier journals. The Ultrafast Electronics and Nanophotonics group provides a dynamic research environment focused on groundbreaking discoveries in ultrafast science, utilizing advanced laser and X-ray facilities to explore new physical phenomena at the frontiers of time and space resolution.

• Attosecond Physics
• Ultrafast Electronics
• Nanophotonics
• +۵ مورد دیگر

Christian Kohlfürst is a Research Scientist and Head of the Strong Fields group at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR), specializing in theoretical high-energy physics at the intensity frontier. His work bridges quantum field theory, computational physics, and experimental laser applications. His research focuses on Strong-Field Quantum Electrodynamics , particularly Schwinger pair production in complex field configurations, field-assisted nuclear fusion , and non-equilibrium quantum processes . Current projects include relativistic quantum kinetic theory for assisted pair production and vacuum birefringence experiments using extreme laser fields. His computational approaches address time-dependent phenomena in multiphoton processes and finite-time quantum systems. His recent publications reveal dominant trends in strong-field QED signatures (60% of output), quantum thermodynamics (25%), and condensed matter analogs (15%). Key collaborations include the BIREF@HIBEF initiative for vacuum birefringence measurements and theoretical frameworks for ELI Beamlines experiments. Awards: Victor Franz Hess Award (2017) Helmholtz Postdoc Grant (2015) As an educator, Kohlfürst teaches Master-level Theoretical Physics and has led specialized courses at the Summer Student Program. His research visits to Chalmers University, Instituto Superior Técnico, and other institutions demonstrate international engagement. Current work focuses on quantum heat engines and time-resolved pair production dynamics using HZDR's high-field infrastructure.

• Strong-Field Quantum Electrodynamics
• Relativistic Quantum Field Theory
• Particle Production
• +۳ مورد دیگر

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

• Molecular Physics
• Ultrafast Dynamics
• X-ray Free-Electron Laser Science
• +۴ مورد دیگر

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

• Laser-driven ion acceleration
• Radiobiology
• Laser-plasma physics
• +۳ مورد دیگر