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Rupert Huber is a Professor at the Department of Experimental and Applied Physics, University of Regensburg, where he has held a chair since 2010. His research focuses on ultrafast quantum phenomena, terahertz science, and lightwave electronics, with a strong emphasis on nanoscale imaging and quantum materials. He leads the Huber group, which has launched the ERC project 'Orbital Cinema' and produced numerous high-impact publications in journals like Nature and Nano Letters . Chair for Experimental and Applied Physics, University of Regensburg (2010–present) Emmy Noether Group Leader, University of Konstanz (2007–2010) Alexander von Humboldt Fellow, UC Berkeley/Lawrence Berkeley National Lab (2004–2006) His research explores terahertz spectroscopy , quantum materials , and ultrafast nanoscopy , often combining experimental innovation with theoretical insights. Recent work includes groundbreaking studies on exciton dynamics in van der Waals magnets and subcycle imaging of electron wave motion. The group’s publications frequently appear as coverstories in Nature Photonics and Nano Letters . Huber has received prestigious awards such as the Gottfried Wilhelm Leibniz Prize (2019) , ERC Starting Grant (2012) , and OSA Fellowship (2018) . He has supervised numerous Ph.D. and Master’s students, including recent awardees like Joshua Mornhinweg (faculty dissertation prize, 2024) and Josef Riepl (best tutor award, 2024).

• Terahertz Science and Technology
• Ultrafast Phenomena
• Quantum Materials
• +7 more

Prof. Dr. Uwe Hartmann is a faculty member and Chair Holder at Saarland University, affiliated with the Institute of Experimental Physics within the Faculty of Natural Sciences and Technology. His research group specializes in nanostructure research and nanotechnology, with a strong focus on instrumentation, nanofabrication, and quantum systems. He is based in Building C6.3, Saarbrücken, Germany. His research interests lie at the intersection of physics and engineering, particularly in nanotechnology , scanning probe microscopy , quantum device characterization , and nanofabrication . His work spans fundamental investigations of nanostructures to applied developments in microsystem technology and industrial nanomanufacturing. He has contributed significantly to cleanroom technologies, surface physics, and the transition from micro- to nanoscale systems. The recent publications highlight a strong thematic focus on enabling technologies for nanoscale science, including instrumentation (e.g., atomic force microscopy), fabrication methods, and analysis of quantum and metallic nanostructures. The research demonstrates a consistent trajectory toward understanding and manipulating matter at the nanoscale for both scientific and industrial applications. Scientific Awards: No awards explicitly mentioned in the provided text. Prof. Hartmann actively supervises doctoral and diploma students, indicating a strong commitment to academic mentoring. His group includes PhD students and scientific staff, suggesting ongoing research projects and potential grant funding, although specific grants are not listed. He has led a long-standing research group with technical staff supporting experimental work, indicating a well-established laboratory infrastructure focused on experimental physics and nanotechnology development. Laboratory and Team: The working group includes scientific staff (e.g., Dr. Haibin Gao), PhD and diploma students, and technical staff (electronics engineers, mechanics, workshop heads), forming a multidisciplinary team capable of both theoretical and hands-on experimental research in nanotechnology. The presence of a dedicated workshop and technical personnel underscores the practical, device-oriented nature of the research.

• Nanotechnology
• Nanostructure Research
• Scanning Probe Microscopy
• +6 more

Prof. Christian Liebscher is a Professor of Advanced Transmission Electron Microscopy at the Ruhr University Bochum , affiliated with the Faculty of Physics and Astronomy and the Research Center Future Energy Materials and Systems (RC FEMS). His work focuses on developing cutting-edge TEM techniques to understand energy-related materials' atomic-scale structure-functionality relationships. He combines aberration-corrected scanning TEM (STEM), 4D-STEM, and in-situ microscopy with machine learning to analyze complex material datasets. Education and Career: 2000–2006: Study of Materials Science at the University of Bayreuth. 2006–2010: PhD at the University of Bayreuth (summa cum laude) with a thesis on phase and dislocation analysis in superalloys. 2011–2014: Postdoc at the University of California, Berkeley, and the National Center for Electron Microscopy (Lawrence Berkeley National Laboratory). 2014–2015: Staff scientist at the University of Duisburg-Essen. 2015–2024: Group leader at the Max Planck Institute for Sustainable Materials in Düsseldorf. Research Interests: Prof. Liebscher’s research bridges microscopy innovation and materials understanding. He emphasizes atomic-scale characterization of interfaces, defects, and grain boundaries in metals and alloys using advanced STEM and 4D-STEM. His work addresses how structural features—like segregation, strain, and phase transitions—impact material properties. He also pioneers machine learning tools to automate data analysis from microscopy and tomography, advancing materials dataspaces. Key topics include energy materials (e.g., PEM fuel cells), high-entropy alloys, and nanomaterials for applications like semiconductors and electromagnetic absorption. Scientific Contributions: His publications highlight trends in grain boundary phase transitions, microstructure-property correlations, and integration of AI into microscopy. For example, recent work explores how grain boundary complexions affect mechanical strength in alloys and how in-situ TEM reveals deformation mechanisms under realistic conditions. He has contributed significantly to methodologies like scanning precession electron diffraction tomography and unsupervised machine learning for atomic-resolution datasets. Labs and Collaborations: Prof. Liebscher leads the Advanced Transmission Electron Microscopy group at RUB, building on his previous leadership at the Max Planck Institute. His lab collaborates with institutions like the Lawrence Berkeley National Laboratory and integrates interdisciplinary approaches combining experimental microscopy with computational modeling.

• Advanced Transmission Electron Microscopy
• Materials Science
• Energy-Related Materials
• +6 more

Florian Hausen is a Professor for Applied Interface Electrochemistry at RWTH Aachen University and leads the scanning probe microscopy focused group at the Fundamentals of Electrochemistry (IET-1) department within Forschungszentrum Jülich . His work bridges electrochemistry, nanotechnology, and materials science, with a focus on energy storage systems. Education : Studied Chemistry at the University of Bonn PhD in Physics from Saarland University Hausen's research interests center on in-situ/operando scanning probe techniques to study interfaces in energy materials, including solid-state batteries , proton exchange membrane water electrolyzers , and ionic liquids . His group explores: Correlative microscopy (AFM, SEM, EPR) for multi-scale analysis Mechanical properties under electrochemical load Tribology of materials in battery systems Interphases in lithium, zinc, and silicon-based energy technologies The article trends reflect his expertise in: Nanoscale electrochemical characterization of battery and electrolyzer components Material degradation under dynamic cycling and electrochemical stress Correlation of electrical, mechanical, and chemical properties in energy systems Technique development for operando studies and data reproducibility His work contributes to understanding and improving: Lithium plating and SEI formation Nanomechanical stability of electrolyzer anodes and cathodes Carbon nanofiber properties for battery electrodes Doping effects in ceramic solid electrolytes

• Electrochemistry
• Nanotechnology
• Materials Science
• +5 more

Dr. Bastian Pfau serves as Department Head of the “Imaging and Coherent X-rays” (B2) division and Project Coordinator for “Transient Structures and Imaging with X-rays” at the Max Born Institute in Berlin, where he has conducted postdoctoral research since 2016. His work pioneers nanoscale magnetic imaging using coherent X-ray techniques, with significant contributions to ultrafast magnetization dynamics and topological spin structures. His academic foundation includes a Dr. rer. nat. (PhD) in Physics from Technical University Berlin (2013) with thesis “Imaging magnetic nanostructures using soft x-ray Fourier transform holography,” and a Diplom (MSc) in Physics from Technical University Dresden (2006) focused on “Combining photon correlation spectroscopy and fluctuation analysis for investigating diffusion dynamics.” Additional research experience spans Lund University (2014-2015), Technical University Berlin (2010-2013), and Helmholtz Center Berlin (2006-2010). Dr. Pfau’s research centers on developing and applying X-ray holography and coherent diffraction imaging to visualize magnetic nanostructures at nanometer-femtosecond scales. His group specializes in ultrafast magnetization dynamics , skyrmion imaging , and element-specific magnetic probing using soft X-rays. Key innovations include achieving 5 nm resolution magnetic imaging and demonstrating all-optical helicity-independent switching via plasmonic nanostructures, with applications in next-generation spintronic devices and magnetic storage technologies. Analysis of his 15 most recent publications reveals dominant themes in nanoscale magnetic imaging (particularly skyrmions and topological textures), ultrafast opto-magnetic effects using extreme ultraviolet radiation, and advanced X-ray methodologies for capturing transient magnetic states. His work consistently bridges fundamental physics with practical instrumentation development, as evidenced by contributions to laser-driven plasma sources and tabletop X-ray setups. As Department Head of B2, Dr. Pfau leads a multidisciplinary team operating cutting-edge X-ray microscopy facilities at MBI. The group maintains strong collaborations with international synchrotron facilities (including BESSY II) and free-electron laser centers, focusing on developing MHz-repetition-rate pump-probe capabilities and high-resolution magnetic imaging techniques. Current projects emphasize real-time visualization of light-induced phase transitions and magnetic switching phenomena in functional materials.

• X-ray Holography
• Magnetic Imaging
• Ultrafast Dynamics
• +5 more

Johannes V. Barth is a Professor at the Technical University of Munich (TUM), leading the Surface and Interface Physics (E20) group within the Physics Department. His research focuses on molecular nanoscience at interfaces, exploring surface chemical processes, heterogenous catalysis models, and functional nanoarchitectures. Utilizing scanning probe microscopy (STM) and advanced spectroscopy, his work investigates charge transfer dynamics, electronic reconfiguration, and molecular self-assembly to design low-dimensional materials and nanotextured surfaces. As part of the Catalysis Research Center (CRC) and the Munich Catalysis Alliance (MuniCat), his group contributes to projects like the CRC IAS 2D INK. Key research themes include on-surface synthesis of carbon scaffolds, supramolecular tessellation, and quasicrystalline coordination networks. Notable publications include works on porphyrin interfaces and pyrene-fused nanostructures, published in Nat. Chem. and ACS Nano . His team collaborates on facilities like the Analytic Core Facility and employs techniques such as LT-STM and NEXAFS. While no specific awards are listed, his contributions to surface science and nanotechnology are recognized through his extensive publication record and leadership inCRC initiatives.

• Molecular Nanoscience
• Surface Chemistry
• Scanning Probe Microscopy
• +3 more

Prof. Dr.-Ing. Philipp Lensing serves as a Professor in the Faculty of Engineering and Computer Science at Osnabrück University of Applied Sciences. His academic work focuses on cutting-edge developments in virtual and augmented reality systems, computer graphics, and game programming. His research interests span Virtual Reality , Augmented Reality , Mixed Reality , Game Programming , Computer Graphics , and Natural User Interfaces . Prof. Lensing has pioneered work in real-time global illumination techniques, avatar calibration systems, and the integration of virtual content with real environments. His research has been applied across diverse domains including landscape planning, physics education, medical rehabilitation, and industrial engineering. Prof. Lensing's recent publications reveal a strong trend toward practical applications of VR/AR technologies in scientific, educational, and industrial contexts. His work increasingly focuses on multimodal interaction, haptic feedback systems, and the integration of VR with complex scientific instrumentation like scanning probe microscopy. He has supervised numerous student projects focused on VR/AR applications, game development, and 3D modeling. His teaching includes courses on Computer Graphics, 3D Game Programming, Virtual and Augmented Realities, and 3D Modeling and Animation. Prof. Lensing leads several research projects including GROWTH (funded by BMBF), VRnano (BMBF), VRFlow Suite, VR-Physio-BOX, and MoDal-MR, all exploring innovative applications of immersive technologies in various practical contexts.

• Virtual Reality
• Augmented Reality
• Mixed Reality
• +5 more

Kanwarpal Singh serves as Group Leader and Head of the Microendoscopy Research Group at the Max Planck Institute for the Science of Light (MPL) in Erlangen, Germany. His research focuses on developing and applying advanced optical imaging techniques, particularly Optical Coherence Tomography (OCT) and related technologies, for biomedical applications. As part of the Max Planck Society, one of Germany's premier research organizations, his work bridges fundamental optical physics with clinical medicine. Dr. Singh's research interests center on biomedical optics and imaging, with particular expertise in endoscopic OCT, optical elastography, and polarization-sensitive imaging techniques. His work spans from developing novel optical systems and probes to applying these technologies in clinical settings for disease diagnosis and monitoring. Key areas include gastrointestinal imaging, dermatological applications, and neurological tissue characterization. His research demonstrates a consistent trajectory from fundamental optical engineering to translational medical applications, with particular emphasis on improving imaging depth, resolution, speed, and clinical usability. Analysis of Dr. Singh's recent publications (2021-2025) reveals a strong focus on overcoming technical limitations in biomedical imaging. His work addresses critical challenges including motion artifacts in in vivo measurements, depth of focus limitations, polarization sensitivity issues, and the development of portable, clinically practical systems. The research shows increasing clinical relevance, with applications spanning inflammatory bowel disease monitoring, esophageal tissue analysis, skin biomechanics, and central nervous system regeneration studies. Dr. Singh leads the Microendoscopy Research Group within the MPL's research structure. While specific lab details aren't provided in the text, his numerous publications describing novel probe designs and imaging systems suggest an active laboratory focused on optical system development, with strong connections to clinical collaborators for in vivo and patient studies. His research appears to involve both theoretical modeling and practical implementation of optical technologies.

• Biomedical Optics
• Optical Coherence Tomography
• Endoscopic Imaging
• +3 more

Dr. Artem Odobesko is a Research Fellow in Experimental Physics II at the University of Würzburg, Germany. He holds a PhD (Dr. rer. nat.) in Physics from the Kotel'nikov Institute of Radio-engineering and Electronics of RAS (Russia) and prior degrees from the Moscow Institute of Physics and Technology (B.Sc. 2003, M.Sc. 2005). His research focuses on topological materials, scanning tunneling microscopy (STM), and superconductivity. Key interests include manipulating Dirac points in topological insulators, probing chiral symmetry, and enhancing STM resolution through novel probe designs. He contributes to the Experimental Physics II team under Prof. Matthias Bode, collaborating on projects involving topological domain walls, electronic interactions in 1D systems, and surface engineering. His work spans experimental and theoretical studies of quantum materials, with publications in journals like Nano Letters , Science Advances , and Nature Physics . He has developed advanced STM techniques and explored phenomena such as Yu-Shiba-Rusinov states and anisotropic vortices. Odobesko’s research also addresses strain effects in epitaxial films and surface preparation for superconductors.

• Condensed Matter Physics
• Topological Insulators
• Scanning Tunneling Microscopy
• +3 more

Dr. Norbert Jux is an Adjunct Professor at the Department of Chemistry and Pharmacy, Friedrich-Alexander-University Erlangen-Nürnberg (FAU), associated with Prof. Dr. Hirsch's Chair of Organic Chemistry II. His research focuses on advanced molecular architectures involving nanographenes, porphyrins, and their conjugates for applications in materials science and photophysics. Research Highlights: Specializes in π-extended conjugates, supramolecular complexation, and regiocontrolled synthesis of polycyclic aromatic systems. Recent Work: Explores helical nanographenes, panchromatic absorption materials, and electron transfer mechanisms in hybrid systems. Collaborations: Works with teams in synthetic chemistry, photophysical characterization, and surface science. Email: norbert.jux@fau.de | Lab Website

• Organic Chemistry
• Nanotechnology
• Photochemistry
• +3 more

Rodolfo Jalabert is a Professor at the University of Strasbourg's Institut de Physique et Chimie des Matériaux de Strasbourg (IPCMS), where he leads research in the Magnetic Objects on the NanoScale (DMONS) team. He joined the university in 1994 after postdoctoral positions at Yale University (1989–1992), CEA Saclay (1992–1993), and IPN-CNRS Orsay (1993–1994). He holds a PhD in Physics from the University of Maryland (1984–1989). His research centers on Condensed Matter Theory , Mesoscopic Quantum Physics , and Quantum Chaos , with emphasis on: Quantum transport in nanostructures (e.g., scanning gate microscopy, quantum dots) Plasmon dynamics in metallic nanoparticles Spin relaxation in semiconductors Decoherence and quantum chaos (e.g., OTOCs, Loschmidt echo) Orbital magnetism in nanoscale systems His publications (2015–2020) predominantly explore quantum coherence, electron transport, plasmonics, and chaos in low-dimensional systems. Trends include advanced scanning probe techniques, out-of-time-ordered correlators for chaos detection, and spin dynamics in disordered materials. Jalabert collaborates with the Mesoscopic Quantum Physics team at IPCMS, focusing on theoretical modeling of nanoscale phenomena. No awards, students, or grants are detailed in the provided text.

• Condensed Matter Theory
• Mesoscopic Quantum Physics
• Quantum Chaos
• +3 more

Prof. Dante Kennes is a University Professor at RWTH Aachen University, leading the Chair of Theoretical Physics of Condensed Matter. His research focuses on quantum materials, strongly correlated systems, and cavity quantum electrodynamics. Key areas include superconductivity in twisted bilayer systems, moiré heterostructures, and non-equilibrium phenomena in low-dimensional materials. He explores theoretical frameworks such as functional renormalization group methods and topological phase transitions. Recent work emphasizes cavity-coupled systems, light-induced superconductivity, and the interplay between electronic correlations and topological properties. His publications address topics like van Hove singularity heterogeneity in graphene, nematicity in kagome metals, and experimental signatures of moiré-engineered phases. Kennes' research bridges theoretical predictions with experimental observability through advanced modeling techniques. His contributions span advanced computational methods for many-body systems and proposals for novel quantum materials characterization. Despite his prolific output, no formal student advisees or awards are explicitly listed in the provided materials.

• Condensed Matter Physics
• Quantum Materials
• Superconductivity
• +4 more

Dr. Jing Qi is a Postdoctoral Researcher in Experimental Physics II at the University of Würzburg's Faculty of Physics and Astronomy, specializing in nanoscale quantum materials and surface phenomena. She joined the research group led by Prof. Dr. Matthias Bode in October 2019 and maintains her laboratory in Building P1 (Physics), Room F164. Educational Background: Bachelor of Science (2013), Huazhong University of Science and Technology (China) Master of Science (2015), Institute of Physics, Chinese Academy of Sciences (China) Dr. rer. nat. in Physics (2019), Institute of Physics, Chinese Academy of Sciences (China) Her research centers on scanning tunneling microscopy/spectroscopy (STM/STS) investigations of two-dimensional quantum materials , with particular emphasis on magnetic chirality tuning, molecular self-assembly on surfaces, and electronic properties of transition metal dichalcogenides. She employs advanced instrumentation including LT-STM/AFM and CryoMag systems to probe nanoscale phenomena at cryogenic temperatures. Her experimental approach integrates atomic-scale imaging with first-principles calculations to establish structure-property relationships in novel materials systems. Analysis of her 15 most recent publications (2017-2024) reveals dominant research themes in quantum material characterization (73%), magnetic nanostructures (62%), and molecular electronics (45%), with increasing focus on Kagome lattices and topological materials in recent works. Her collaborative network spans Germany (University of Würzburg), China (Institute of Physics CAS), and international institutions. Scientific Recognition: Contributions to high-impact journals including Angewandte Chemie , Physical Review B , and Nature Communications Key role in discovering Kagome flat-band localized states through STM imaging Development of methods for reversible magnetic chirality control Dr. Qi actively contributes to the department's research infrastructure, particularly in cryogenic STM instrumentation (LT-1, LT-2, LT-3 systems). She collaborates extensively with theoretical groups for first-principles validation of experimental findings. Her current work focuses on engineered quantum states in 2D materials for potential spintronic applications, with several open research positions available in her team for experimental and computational projects.

• Scanning Tunneling Microscopy
• Two-Dimensional Materials
• Magnetic Chirality
• +5 more

Dr. Christopher Kley is a Group Leader at the Fritz Haber Institute of the Max Planck Society, leading the Kley Group within the ISC Department's Interface Science research area. His work focuses on material synthesis and nanoscale understanding of solid-liquid interfaces for catalysis and energy conversion applications. Key research interests include developing advanced catalytic materials and elucidating structure-property relationships using in situ scanning probe microscopy (SPM), particularly atomic force microscopy (AFM) under liquid phase conditions. The group also employs advanced spectroscopic tools to study charge transport phenomena and catalyst degradation mechanisms under reaction conditions. Recent research highlights include investigations into CO2 electroreduction catalyst stability, nanoscale electron transfer at electrochemical interfaces, and operando characterization of catalyst morphology changes. Dr. Kley has published extensively in journals like National Science Review , ACS Applied Materials & Interfaces , and Journal of the American Chemical Society . He actively participates in international conferences, presenting innovations in electrochemical microscopy and catalytic materials design. His team comprises researchers such as Dr. Mael Brule, Dr. Neha Jha, and Dr. Martin Munz, collaborating on projects funded by the Helmholtz Association and Max Planck Society grants. The Kley Group's lab specializes in integrating advanced microscopy with material synthesis to address challenges in renewable energy conversion and sustainable catalysis.

• Catalysis
• Energy Conversion
• Scanning Probe Microscopy
• +3 more

Brian P. Gorman is an Associate Professor at the Colorado School of Mines , affiliated with the Colorado Center for Advanced Ceramics within the Metallurgical and Materials Engineering department. He specializes in advanced materials characterization techniques, particularly Atom Probe Tomography (APT) and Scanning Transmission Electron Microscopy (STEM). Education : PhD, MS, and BS in Ceramic Engineering from the University of Missouri–Rolla. Research interests focus on improving atomic-scale tomography through correlative electron microscopy and diffraction. His work addresses geometric inaccuracies in APT data reconstruction by integrating quantitative electron microscopy measurements. Scientific awards : Recipient of the Ralph E. Powe Junior Faculty Enhancement Award (2006) from Oak Ridge Associated Universities. Labs and research centers : Leads the CCAC Atom Probe Tomography Laboratory and is affiliated with the International Center for Multiscale Characterization .

• Materials Science
• Ceramics Engineering
• Electron Microscopy
• +1 more