Prof. Alexander Holleitner leads the Chair of Nanotechnology and Nanomaterials at the Department of Physics, Technical University of Munich , under the Walter Schottky Institute. His research focuses on ultrafast optoelectronics, quantum optoelectronics, and excitonic systems in nanoscale circuits. Research Directions : Ultrafast optoelectronics, quantum optoelectronics, excitonic systems, THz time-domain spectroscopy, and nanofabrication of mixed organic/inorganic systems. Publications : Recent work spans hyperbolic polaritons, interlayer excitons, graphene nano-gap dynamics, and defect engineering in 2D materials. Collaborations include interdisciplinary projects with groups studying semiconductor heterostructures and quantum technologies. His lab welcomes students and researchers interested in experimental physics, quantum electronics, and nanofabrication.
Wolfgang Porod is a Professor of Electrical Engineering and holder of the Frank M. Freimann Chair at the University of Notre Dame. He is also a Hans Fischer Senior Fellow at the TUM Institute for Advanced Study (TUM-IAS) since 2009, affiliated with the Nanoimprint and Nanotransfer Focus Group led by Paolo Lugli. His research focuses on nanoelectronics and quantum devices, notably co-inventing the Quantum-Dot Cellular Automata (QCA) framework, a molecular-scale information processing paradigm. Porod earned his Diplom (M.S.) and Ph.D. from the University of Graz, Austria, and held postdoctoral roles at Colorado State and Arizona State Universities before joining Notre Dame in 1986. He directs Notre Dame’s Center for Nano Science and Technology, advancing interdisciplinary nanotechnology research. His academic accolades include Fellowships from the AAAS (2005) and IEEE (2001), and teaching awards such as the Kaneb Teaching Award (2005) and the Ruth and Joel Spira Award (2000). Porod’s work bridges quantum physics and engineering, with applications in low-power computing, spintronics, and nanoscale device fabrication. At TUM-IAS, he collaborates on nanoimprint lithography and nanotransfer technologies, advancing scalable nanomanufacturing methods.
Prof. David Hunger leads the Cavity Quantum Optics Group at the Physics Institute (PHI) of Karlsruhe Institute of Technology (KIT). His research focuses on optically addressable spins in condensed matter, cavity-enhanced light-matter interactions, and quantum photonics with applications in sensing, spectroscopy, and quantum computing. The group develops fiber-based microcavities for coherent spin-photon interfaces, rare-earth ion qubits, and cavity-enhanced imaging of nanoscale systems. Notable projects include the BMBF-funded NEQSIS and SPINNING initiatives for quantum communication and diamond-based quantum computing. The group also pioneered Qlibri , a spin-off company commercializing optical fiber microcavities for quantum optics and microscopy. Recent breakthroughs include record spin coherence in SnV centers and ultra-stable nanopositioning platforms for cryogenic experiments. Affiliations: Faculty of Physics, KIT; Max Planck School of Photonics Grants: BMBF Grand Challenge (Quantum Communication), BMBF SPINNING (Diamond Qubits) Labs/Teams: Cavity Quantum Optics Group, Qlibri spin-off Students and postdocs in the group work on topics like collective cavity effects, molecular spin platforms, and cavity-enhanced sensing of liquid-phase nanosystems.
Prof. Dr.-Ing. Andreas Thiede is a faculty member at the University of Paderborn , affiliated with the Faculty of Electrical Engineering, Computer Science and Mathematics and the Institute of Electrical Engineering and Information Technology . He serves as director of the High-frequency electronics (HFE) research group. Research Interests: High-frequency electronics and optoelectronics Quantum dots and exciton qubits Nonlinear photonics and ultrafast control Semiconductor device engineering Key Projects: Participates in TRR 142: Tailor-Made Nonlinear Photonics , focusing on functional structures for quantum and ultrafast systems. Teaching Roles: Analog CMOS circuits (does not apply) Analog CMOS ICs (cancelled) Contact Details: Email: andreas.thiede@uni-paderborn.de Phone: +49 5251 60-3040 Office: Pohlweg 47-49, 33098 Paderborn Space: P1.402.1
Örs Legeza is a physicist and scientific advisor at the Wigner Research Centre for Physics of the Hungarian Academy of Sciences in Budapest, leading the Strongly Correlated Systems Research Group. He holds a visiting professorship at Philipps University Marburg, Germany, and has held fellowships at institutions like ETH Zurich and LMU Munich. His research focuses on developing tensor network state (TNS) methods for strongly correlated quantum systems, with applications in condensed matter physics, quantum chemistry, and nuclear structure calculations. Education: PhD from Budapest University of Technology and Economics (1997). He has collaborated with European institutions such as FAU Erlangen-Nuremberg and has been an Alexander von Humboldt awardee. His work bridges quantum information theory and computational mathematics to advance simulations of complex quantum systems. Research interests include quantum phase transitions, magnetic properties in solids, and ultracold atomic systems. His methods push computational boundaries for larger systems, integrating techniques like density matrix renormalization group (DMRG) and matrix product states (MPS). Notable awards include the 2021 Academy Prize and 2018 Humboldt Research Award. Recent articles explore quantum crystal imaging, tensor network algorithms, and nuclear structure calculations. His work emphasizes interdisciplinary approaches to quantum many-body problems.
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).
Max Born Institute for Nonlinear Optics and Short Pulse SpectroscopyGermany
Prof. Stefan Eisebitt is a Director at the Max-Born-Institut für Nichtlineare Optik und Kurzzeitspektroskopie and holds a Professorship in Experimental Physics at the Technische Universität Berlin. His research focuses on ultrafast magnetization dynamics, nanoscale structure analysis, and novel imaging techniques using coherent XUV/X-ray spectroscopy. He leads the Transient Electronic Structure and Nanoscience group and is involved in cutting-edge projects involving femtosecond laser-driven X-ray sources and spintronic materials. Education and Career: He obtained his Diplom (1992) and Ph.D. (1996) from Cologne University, followed by postdoctoral research at the University of British Columbia and Forschungszentrum Jülich. He became a Privatdozent at Humboldt-Universität Berlin (2005) and held professorships at TU Berlin (2008–2015) and Lund University (2012–2015) before his current role since 2015. He leads the Functional Nanomaterials joint research group between Helmholtz-Zentrum Berlin and TU Berlin. Research Interests: His work spans transient electronic structure, ultrafast optical manipulation of magnetization, nanoscale material characterization, and advanced coherent imaging methods. Key techniques include XUV/X-ray spectroscopy, laser-driven plasma sources, and femtosecond time-resolved studies. Professional Roles: He chairs the Physikalische Gesellschaft zu Berlin and the Elettra Scientific Advisory Council. He has held leadership roles in the European XFEL Scientific Advisory Committee and the Komitee für Forschung mit Synchrotronstrahlung (KFS). His lab develops state-of-the-art setups for ultrafast X-ray scattering and holography.
Prof. Dr. Sven Höfling is the Head of Chair and leader of the '2D Materials' Group at the Department of Technical Physics, University of Würzburg. His research focuses on semiconductor nanostructures, photonic systems, and quantum materials, with expertise in low-dimensional systems and light-matter interactions. He leads projects in the Cluster of Excellence ct.qmat and collaborates on EU, DFG, and industry-funded initiatives in quantum technology and nanophotonics. Affiliations: Chair of Technical Physics, University of Würzburg Address: Am Hubland, P1 Building (Room AU26), 97074 Würzburg, Germany Research highlights include topological polariton lasers, quantum dot photonics, and mid-infrared optoelectronics. His work spans experimental physics with strong ties to theoretical models, emphasizing applications in quantum computing and optoelectronic devices. Recent advances include room-temperature polariton lasers and strain-tunable single-photon sources. Key projects include the Würzburg-Wroclaw Nanophotonics Center and collaborations with KAIST-JMU on quantum technology. His lab employs advanced fabrication techniques like circular Bragg gratings and resonant tunneling diodes.
Prof. Dr. Ioachim Pupeza serves as Group Leader in the Department of Spectroscopy/Imaging at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany. His research focuses on advanced optical measurement techniques, particularly in the field of field-resolved spectroscopy and precision optical measurements. Dr. Pupeza's research interests center around optical spectroscopy with a particular emphasis on field-resolved techniques that capture the complete electric field waveform of light-matter interactions. His work spans infrared spectroscopy , molecular fingerprinting , ultrafast laser technology , and precision optical measurements . He has made significant contributions to electro-optic sampling techniques, which enable characterization of electric-field waveforms across the terahertz to visible spectral range. His research also extends to mid-infrared light generation , terahertz spintronic emitters , and cavity-enhanced spectroscopy , with applications ranging from fundamental physics to medical diagnostics. Analysis of Dr. Pupeza's recent publications reveals a strong trend toward increasingly sophisticated field-resolved spectroscopy techniques with applications in both fundamental science and practical diagnostics. His work has evolved from basic measurement techniques to applications in cancer detection through molecular fingerprinting of biofluids. A consistent theme across his publications is the pursuit of higher precision, broader bandwidth, and improved sensitivity in optical measurements, often achieving attosecond-level precision. His research bridges physics, engineering, and medical applications, demonstrating how fundamental optical advances can translate to real-world diagnostic tools. Dr. Pupeza leads the research group "Field-Resolved Optical Precision Measurement Methods" at Leibniz-IPHT, which appears to collaborate extensively with other research institutions and groups. His work involves sophisticated laser systems including high-power Yb:YAG thin-disk oscillators, femtosecond enhancement cavities, and dual-oscillator systems for precision measurements. The group's research has implications for molecular spectroscopy, medical diagnostics, and fundamental studies of light-matter interactions at the most fundamental time scales.
Fritz Haber Institute of the Max Planck SocietyGermany
Bernard Doudin is a Professor at the University of Strasbourg, working with the Magnetic Objects on the NanoScale (DMONS) group at the Institute of Physics and Chemistry of Materials of Strasbourg (IPCMS). He holds office 1014 and can be contacted at bernard.doudin@ipcms.unistra.fr. Doudin has been actively coordinating several major research initiatives including STnano Coordinator for Innovative Training Networks, Coordinator of the Graduate School Quantum Science and Nanomaterials QMat, and Coordinator of the Interdisciplinary Thematic Institute Quantum Science and Nanomaterials. Doudin's research focuses on nanoscale devices that leverage the spin degree of freedom, with expertise spanning spintronics, 2D electronic detectors, multi-stimuli devices, and magnetic forces at the nanoscale. His work bridges physics, materials science, and chemistry, exploring applications in molecular electronics, nanofluidics, and electrochemistry. He has pioneered original systems and concepts in spintronics, evolving toward multifunctional devices that take advantage of quantum properties at the nanoscale. Analysis of his recent publications (2022-2025) reveals a strong focus on van der Waals heterostructures, magnetic microhydrodynamics, and graphene-based spintronic devices. His research shows a clear trend toward integrating multiple physical phenomena (magnetic, electrical, optical) in single devices, with particular emphasis on neuromorphic computing applications, magnetically controlled fluid dynamics, and photoferroelectric effects. The publications demonstrate interdisciplinary collaboration across physics, materials science, and engineering disciplines. PhD prize of the University of Lausanne (top 2%) NSF Career grant (1998) Adjunct Director of the NSF MRSEC Center (2000) Chaired Professor of the French Ministry (2005) Fellow of the University of Strasbourg International Studies (2014) Fellow of the Institut Universitaire de France (Senior, 2021) Professor Doudin has secured significant research funding and coordinates multiple large-scale projects including the Innovative Training Networks Marie Skodowska-Curie actions and the Graduate School Quantum Science and Nanomaterials. His leadership extends to scientific direction of cleanroom facilities and interdisciplinary research initiatives that bring together approximately 50 principal investigators across various quantum science and nanomaterials projects. Doudin leads research activities at IPCMS, particularly within the DMONS group focusing on magnetic phenomena at the nanoscale. His work integrates experimental approaches across spintronics, nanofabrication, and materials characterization, with strong connections to both fundamental physics and potential applications in next-generation electronic devices.
Prof. Ady Arie is a Professor of Electrical Engineering at Tel Aviv University, where he serves as the Head of the Tel Aviv University Center for Light-Matter Interaction and holds the Marko and Lucie Chaoul Chair in Nano-Photonics. He has been a faculty member at the Iby and Aladar Fleischman Faculty of Engineering since 1993, previously serving as Head of the School of Electrical Engineering (2013-2017) and Vice Dean of Research (2011-2013). His educational background includes: B.Sc. in Mathematics and Physics from Hebrew University of Jerusalem (1983) M.Sc. in Physics from Tel-Aviv University (1986) Ph.D. in Engineering from Tel-Aviv University (1992) Prof. Arie's research spans multiple frontiers of optics and photonics. His work in nonlinear optics focuses on advanced frequency conversion techniques and shaping of light parameters using nonlinear photonic crystals. In quantum optics , he develops quantum light sources based on spontaneous parametric down conversion and explores applications in quantum sensing and communication. His plasmonics research investigates manipulation of surface plasmon polaritons on metal surfaces. In electron optics , he studies electron-matter-light interactions and techniques for sculpting electron wave functions. His lab also explores hydrodynamics through quantum simulations with water waves, creating analogies to quantum mechanical phenomena. Analysis of Prof. Arie's recent publications (2023-2025) reveals a strong focus on quantum technologies, particularly in quantum light generation, quantum sensing, and quantum information processing. His work increasingly integrates concepts from nonlinear optics, electron microscopy, and quantum physics, with growing emphasis on practical applications in quantum communication and computation. The research shows sophisticated manipulation of light-matter interactions across multiple platforms including nonlinear photonic crystals, plasmonic structures, and electron beams. Prof. Arie has received significant recognition for his work: Kadar Foundation Award for Excellence in Research (2016) Fellow of the Optical Society of America Editorial roles including Topical Editor of Optics Letters (2008-2014) and Associate Editor of Optica (since 2018) Prof. Arie leads the Nonlinear Optics and Wave Propagation Laboratory at Tel Aviv University, where his team investigates diverse wave phenomena from light frequency conversion to electron beam manipulation. He has served as chair of the national steering committee of the Israeli Planning and Budgeting Committee on Quantum Science and Technology. His research has been supported by various grants enabling the development of novel optical technologies and quantum systems. While specific grant details aren't provided in the text, his extensive publication record and leadership positions suggest substantial research funding. Prof. Arie's laboratory focuses on the intersection of classical and quantum wave phenomena. The lab investigates light manipulation through nonlinear optical processes, plasmonic structures, and electron microscopy techniques. Current research directions include quantum light generation, electron-photon interactions, and hydrodynamic analogs to quantum systems. The lab appears well-equipped for advanced optical experimentation with capabilities spanning visible to infrared wavelengths, nonlinear crystal engineering, and electron beam characterization.
Prof. Dr. Jürgen König is a Professor at the University of Duisburg-Essen , contributing to projects within the Collaborative Research Centre 1242. His research focuses on Charge Carrier Dynamics in Nanostructures (Project A02) and Unifying Theoretical Description of Relaxation in Electron Systems (Project B07). Contact details include email: koenig@thp.uni-due.de . Research interests span Condensed Matter Physics , Quantum Transport , Nanostructures , and Electron Dynamics . His work often employs theoretical modeling of quantum systems, with recent publications analyzing phase transitions in 2D Ising systems Floquet engineering in superconductors nonlocal thermoelectric correlations Lee-Yang zero analysis of transport . Articles from 2017-2024 highlight expertise in quantum dot systems , spin dynamics , surface physics , and full counting statistics .
Max Planck Institute for Chemical Physics of SolidsGermany
Professor Phil King leads a research group within the School of Physics and Astronomy at the University of St Andrews, where he is part of the Centre for Designer Quantum Materials. His research focuses on the electronic structure and many-body interactions of quantum materials using electron spectroscopy, particularly angle-resolved photoemission (ARPES), and creating new designer quantum materials through atomic layer-by-layer growth. King's research interests center on quantum materials, with particular emphasis on topological matter, transition-metal oxides, and 2D quantum materials. His group investigates strain and pressure tuning of quantum materials, photoemission spectroscopy of correlated systems, and engineering band structures in 2D conductors. They develop methods to exploit strong electronic interactions in 2D systems to create new functional materials with tunable properties. Their approach combines experimental screening of candidate materials, bottom-up atomic assembly of custom heterostructures, and advanced spectroscopic feedback. Analysis of King's recent publications reveals a strong focus on the electronic structure of quantum materials, particularly transition metal dichalcogenides, delafossite metals, and topological systems. His work frequently examines charge density waves, spin-orbit coupling effects, Van Hove singularities, and quantum phase transitions. A notable trend is the integration of materials synthesis with advanced spectroscopic characterization, enabling precise control over electronic properties through strain engineering, doping, and heterostructure formation. King actively supervises PhD students on projects related to quantum materials, including probing elastic coupling in exotic magnets, angle-resolved photoemission from tailored mesostructures, thermodynamics and spectroscopy, oxide metals, and gate tuning of 2D quantum materials. His research is supported by major funding sources that enable access to cutting-edge equipment and international facilities. The King Group operates advanced experimental facilities including a high-resolution lab-based ARPES system with multiple light sources, and two DCA R450 molecular-beam epitaxy systems optimized for transition-metal oxides and chalcogenides. They are developing the UK's first spin-resolved ARPES capability. The group regularly utilizes major international facilities including Diamond Light Source, Elettra, SOLEIL, and HiSOR synchrotrons, as well as the ARTEMIS facility for time-resolved studies.
Prof. Dr. Ferdinand Evers is a Chair of Computational Condensed Matter Theory at the Institute of Theoretical Physics , University of Regensburg. His research spans quantum transport , spintronics , molecular electronics , and many-body localization , with a focus on ab initio and DFT-based modeling of nanostructures and low-dimensional systems . Key Research Areas: Quantum transport in molecular junctions Spin-orbit coupling and chiral effects Multifractality at quantum phase transitions Electronic structure of topological materials Ultrafast laser-driven electron dynamics Anderson localization and disorder Recent Article Trends (2021–2024): High-harmonic generation in topological insulators Spin-selective transport in chiral systems Mechanical torque in molecular rotors Self-consistent GW methods for molecular electronics Quantum interference in graphene nanoribbons Teaching: Lecturer for Theoretical Physics I-IV , Advanced Quantum Mechanics , and Scientific Perspectives courses at the University of Regensburg Focus on statistical mechanics , quantum transport , and computational nanoscience
Beate Paulus is a Professor for Theoretical Chemistry at the Freie Universität Berlin , affiliated with the Chemistry and Biochemistry college and the Chemistry department. Her research focuses on advanced quantum chemical methodologies and applications to 2D materials, spintronics, and catalysis. Current affiliation: Freie Universität Berlin Key research areas: Quantum Chemistry, Density Functional Theory, 2D Materials, Spintronics, Electrocatalysis Her work spans computational modeling of electronic structures, magnetic properties, and chemical reactions using Density Functional Theory (DFT) with specialized corrections. She investigates systems like MoS2 , graphene heterostructures , and transition metal complexes , aiming to understand and optimize properties for energy applications, biosensors, and nanoelectronics. Recent publications highlight her contributions to quantum mechanical fluorine tunnelling , spin-selective transport in doped nanoribbons , and surface functionalization strategies for 2D materials. Her group also explores mechanically interlocked molecules and redox-responsive polymers with potential biomedical applications. Beate Paulus leads the Paulus Group , which actively publishes in high-impact journals and collaborates on interdisciplinary projects involving experimental and theoretical approaches.
