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Prof. Dr. Gert-Ludwig Ingold is a Professor of Theoretical Physics at the Institute of Physics, Faculty of Mathematics, Natural Sciences, and Materials Engineering, University of Augsburg. His research spans multiple areas of theoretical physics with emphasis on quantum phenomena in nanoscale systems. His work on the Casimir effect explores interactions between various geometries including spheres, plates, and dielectric materials, with applications in nanotechnology and biophysics. His research on dissipative quantum systems investigates thermodynamic anomalies and quantum Brownian motion. In mesoscopic physics, he studies charge transport through nanoscale structures and quantum interference effects. His work on quantum systems in phase space connects classical and quantum dynamics, while his semiclassical research examines quantum revival patterns and phase-space trajectories. Prof. Ingold's publications reveal a strong focus on the Casimir effect, with numerous papers examining interactions between different geometries and materials. His work demonstrates expertise in both theoretical modeling and numerical methods, as evidenced by his development of the CaPS software for Casimir effect calculations. He frequently collaborates with international researchers, particularly with Paulo A. Maia Neto, Tanja Schoger, and Benjamin Spreng. Prof. Ingold has made significant contributions to physics education through textbooks and popular science books, including Quantentheorie: Grundlagen der modernen Physik and Die 101 wichtigsten Fragen: Moderne Physik . He has co-authored the Python-based educational resource Numerische Physik mit Python and maintains extensive online teaching materials including lecture notes and video tutorials.

• Casimir effect
• Dissipative quantum systems
• Mesoscopic physics
• +2 more

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 .

• Condensed Matter Physics
• Quantum Transport
• Nanostructures
• +3 more

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

• Condensed Matter Physics
• Quantum Mechanics
• Molecular Electronics
• +7 more

Roland Ketzmerick is a Professor of Computational Physics at Technische Universität Dresden since 2002, with a Max Planck Fellow position at the Max Planck Institute for the Physics of Complex Systems (2010–2020). He was spokesperson for the DFG Forschergruppe FOR760 on Scattering Systems with Complex Dynamics (2010–2013). His research focuses on quantum chaos in mixed systems, power-law trapping in Hamiltonian systems, Floquet systems , Hamiltonian ratchets , mesoscopic physics , fractal spectra , and Bloch electrons in magnetic fields . His work bridges classical and quantum dynamics, exploring tunneling, wavefunction statistics, and nonequilibrium phenomena. His publications demonstrate a strong emphasis on chaotic resonance states , dynamical tunneling , multifractal analysis , and quantum transport in complex systems. Recent articles (2022–2025) address dielectric cavities, ultracold atom entanglement, and 4D Hamiltonian structures. Scientific Awards : Otto-Klung-Prize (1999)

• Quantum Chaos
• Hamiltonian Systems
• Floquet Systems
• +3 more

Prof. Raoul-Martin Memmesheimer is a Professor at the University of Bonn's Institute of Genetics , contributing to the Transdisciplinary Research Area (TRA) - Life and Health . His research focuses on understanding neural network dynamics across microscopic, mesoscopic, and large-scale phenomena, integrating mathematical approaches with neurophysiological insights. Key interests include the dynamics of precise spiking activity, collective network behavior, and computational principles underlying neural systems. Education & Background : While specific educational details are not listed, his position as a Professor indicates advanced academic qualifications in theoretical neuroscience or related fields. Research Interests : Memmesheimer's work bridges theoretical physics and computational neuroscience, addressing topics like spiking neuron models, learning in neural networks, and the emergence of complex behaviors. His group employs methods from computer science and applied mathematics to study how neural systems perform computations through their dynamic properties. Publications : Recent work explores topics such as gradient descent learning in spiking networks, STDP-based assembly dynamics, and oscillatory phenomena in hippocampal regions. These publications highlight his focus on both foundational theory and applications to biological systems. Awards & Collaborations : While no specific awards are listed, his participation in TRA Life and Health underscores collaborative efforts in transdisciplinary health-related research. His work is supported by the University of Bonn's strong focus on transdisciplinary innovation. Labs & Teams : His research group operates within the Institute of Genetics, leveraging interdisciplinary resources at the University of Bonn to advance theoretical neuroscience and computational biology.

• Neural Network Dynamics
• Computational Neuroscience
• Theoretical Physics
• +3 more

Andrew Mackenzie is the Director of the Physics of Quantum Materials department at the Max Planck Institute for Chemical Physics of Solids in Dresden, Germany. He is a leading figure in condensed matter physics, with a career spanning prestigious institutions including the University of Cambridge, University of Birmingham, and University of St Andrews. His research focuses on unconventional superconductivity , quantum criticality , non-Fermi liquid metallic states , and mesoscopic correlated electron physics . He is also involved in the development of new experimental probes for quantum materials and works extensively with ultrapure metals across various classes. As a principal investigator and speaker of the IMPRS-CPQM (International Max Planck Research School for Chemical Physics of Quantum Materials), he plays a central role in training and mentoring doctoral students in quantum materials science, though specific advisees are not listed. His work is supported by the Max Planck Society, indicating substantial institutional backing and collaborative research grants. He is based in Dresden, Germany, and his laboratory is part of a world-leading institute dedicated to the synthesis and investigation of novel quantum materials. The research group emphasizes precision measurements and low-temperature physics in high-purity samples.

• Condensed Matter Physics
• Quantum Materials
• Unconventional Superconductivity
• +6 more

Dr. Philipp Preiss is the Group Leader of the Atomic Quantum Matter research group at the Max Planck Institute of Quantum Optics. His work focuses on experimental quantum information science applied to ultracold atomic systems, leveraging quantum gas microscopy and optical lattice technologies to study many-body quantum systems with single-particle control. He leads the UniRand project, funded by an ERC Starting Grant, which aims to develop a novel optical lattice system for studying quantum phase transitions and entanglement dynamics at the intersection of condensed matter physics and quantum information science. Research Interests: Quantum simulation using ultracold atoms Entanglement dynamics in many-body systems Quantum phase transitions and criticality Optical lattice engineering and single-atom control Random unitary protocols and basis-independent measurements Key Contributions: His recent work explores emergent hydrodynamic behavior in fermionic systems, Cooper pairing in two-dimensional Fermi gases, and novel cooling techniques like quantum virtual cooling. The group also investigates skyrmion ground states and Pauli crystals in rotating ultracold gases. Awards: ERC Starting Grant (2020): UniRand – Random Unitaries in a Rapid Optical Lattice Simulator Advising & Infrastructure: His labs include the FermiQP Lab and Lithium Lab , equipped for advanced quantum gas microscopy and optical tweezer experiments. The group collaborates on interdisciplinary projects, such as the HDvent Emergency Ventilator System , demonstrating applications of quantum engineering principles in medical technology.

• Quantum Information
• Ultracold Atoms
• Quantum Many-Body Systems
• +3 more

Romain Danneau is a permanent scientist and Project Leader at the Karlsruhe Institute of Technology (KIT), affiliated with the Institute for Quantum Materials and Technologies (IQMT) and previously the Institute of Nanotechnology (INT). His research focuses on quantum transport in graphene and carbon-based nanostructures, with an emphasis on mesoscopic physics, superconductivity, and device applications. He leads a research group dedicated to the electronic properties of graphene, supported by internal and international collaborations across Europe, Asia, and the Americas. His research interests include quantum transport, low-temperature solid-state physics, mesoscopic systems, graphene, carbon nanotubes, proximity-induced superconductivity, topological effects in condensed matter, and low-noise microwave measurements. His work bridges fundamental physics and applied nanoelectronics, particularly in designing and characterizing quantum devices operating at millikelvin temperatures. The 15 most recent publications reveal a strong trend in hybrid superconducting graphene devices, multiterminal Josephson junctions, quantum interference, and the manipulation of Cooper pairs. Key subfields include Andreev reflection, ballistic transport, spin-valley coupling, Floquet engineering, and phase-coherent phenomena. His recent work increasingly explores topological aspects and non-local quantum effects in graphene-based systems. Australian Research Council Discovery Project Award Fellowship (2005) Invited professorship from Sejong University, Seoul, Korea (2012) Grant for large equipment from KIT-DFG (2011) Grant for small equipment from KIT-DFG excellence initiatives (2009) Romain Danneau has supervised students such as Christian and Julien, who completed theses on graphene microwave transistors and proximity-induced superconductivity, respectively. He has secured significant funding from the DFG, EU (FP7 programs), and KIT-DFG initiatives, including grants exceeding €450,000 for equipment and collaborative projects. His leadership in the EU Tempus IV XNEM project highlights his role in developing nanoscience education in the MENA region. He leads the Graphene team at INT/IQMT, which benefits from advanced infrastructure such as a cryo-free dilution refrigerator (BlueFors LD250) with a 12 T magnet, enabling millikelvin measurements. His group collaborates internationally and focuses on both fundamental quantum phenomena and device applications in graphene and 2D materials.

• Quantum transport
• Low temperature solid state physics
• Mesoscopic physics
• +9 more

Prof. Dr. Chase Broedersz is a tenured W2 Professor of Theoretical Physics – Statistical and Biological Physics at Ludwig-Maximilians-Universität München (LMU Munich) since 2015. He also holds a secondary affiliation as Associate Professor at VU Amsterdam since 2020. He is a member of the Young College of the Bavarian Academy of Science since 2017. Education Ph.D. in Theoretical Physics , VU Amsterdam (2011) MSc. in Physics , VU Amsterdam (2007) BSc. in Physics and Astronomy , VU Amsterdam (2005) Research Interests Prof. Broedersz leads a research program at the intersection of statistical physics and biological physics , with a focus on: Soft Matter Physics : mechanics of biopolymer networks, semiflexible filaments, and composite materials Active Matter : non-equilibrium dynamics in living systems, motor-driven networks, and active gels Cell Mechanics : confined cell migration, mechanosensing, and force transmission in tissues Chromosome Organization : bacterial chromosome structure, protein-DNA interactions, and SMC condensins His work combines theoretical modeling , computational simulations , and experimental collaborations to uncover the physical principles governing complex biological systems. Publication Trends Prof. Broedersz has authored over 50 peer-reviewed publications since 2010. His recent work (2019–2025) emphasizes: Cell migration in confined and soft environments, with studies in Nature Physics and PNAS Non-equilibrium dynamics in active biological systems, including broken detailed balance and emergent contractility Machine learning approaches to infer stochastic dynamics in biological data, published in Nature Communications and Physical Review Letters Chromosomal organization in bacteria, combining polymer physics with genomic data Labs and Teams He leads the Statistical and Biological Physics Group at LMU Munich, affiliated with the Arnold Sommerfeld Center for Theoretical Physics (ASC) . The group collaborates closely with experimental teams at LMU, Princeton, and other institutions, focusing on interdisciplinary biophysics research. Teaching Prof. Broedersz has taught advanced courses including: Advanced Statistical Physics Soft Matter Physics Stochastic Processes in Physics and Biology

• Statistical Physics
• Biological Physics
• Soft Matter Physics
• +4 more

Kurt Kremer serves as Director and Scientific Member of the Theory Department at the Max Planck Institute for Polymer Research (MPI-P) in Mainz, Germany, a position he has held since 1995. His leadership oversees a multidisciplinary research group focused on computational soft matter physics, with close collaboration from senior scientists including Dr. D. Andrienko, PD Dr. Kostas Daoulas, and Dr. R. Cortes-Huerto. His research spans statistical physics , computational methods , and multiscale modeling of soft matter systems, with emphasis on polymers, biopolymers, membranes, organic electronics, and glassy dynamics. The group develops advanced simulation techniques like adaptive resolution methods and coarse-grained modeling to study structure-process-property relationships in synthetic and biological materials. Analysis of his co-authored publications (2015–2019) reveals dominant trends in free energy calculations , finite-size effects in simulations , and mesoscale self-assembly phenomena , particularly in conjugated polymers and nematic systems. Keywords consistently include computational physics, thermodynamics, and polymer science with subfields spanning adaptive resolution frameworks, solvation thermodynamics, and charge transport mechanisms. Key recognition includes membership in the German National Academy of Sciences (Leopoldina). Notable alumni from his research group include Prof. B. Baumeier (TU Eindhoven) and Prof. D. Donadio (UC Davis), who have established independent careers in biophysics and materials science. Kremer mentors a team of senior scientists and postdoctoral researchers, driving projects funded through Max Planck Society resources and collaborative grants. Current work emphasizes bridging atomistic simulations with continuum models for organic electronic materials and nonequilibrium molecular dynamics.

• statistical physics
• computational physics
• soft matter
• +5 more

Harald E. Möller is a Professor and Head of the Nuclear Magnetic Resonance Research and Development Unit at the Max Planck Institute for Human Cognitive and Brain Sciences in Leipzig. With a career spanning over four decades, he has held academic positions including Honorary Professor at the University of Leipzig and leadership roles in institutions like Duke University Medical Center and the University of Münster. His research focuses on advancing MRI methodologies, biophysical imaging principles, and their applications in neurology and neuroscience. Education: 1979-1985: Chemistry & Physics studies at Universities of Dortmund and Münster 1985: M.Sc. (Diploma) in Chemistry 1988: PhD in Physical Chemistry (summa cum laude) 2000: Habilitation in Physical Chemistry 2002: Habilitation in Biophysical Chemistry Research Interests: Development of novel MRI methods Quantitative tissue characterization Myelin sheath imaging Cerebral blood flow dynamics High-field MRI hardware

• Magnetic Resonance Imaging (MRI)
• Neuroimaging Biophysics
• Brain Metabolism Analysis
• +6 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

Dr. Dimo Ivanov is an Assistant Professor at the Department of Cognitive Neuroscience at Maastricht University in the Netherlands. Since 2025, he has also served as Head of the 7 Tesla MR Core structure at the Cooperative Brain Imaging Center and as an Independent Research Group Leader at the Max Planck Institute for Empirical Aesthetics in Frankfurt, Germany. His work bridges physics, neuroscience, and advanced imaging technology. Dr. Ivanov earned his PhD (Dr. rer. nat.) in Physics from the University of Leipzig/Max Planck Institute for Human Cognitive and Brain Sciences in 2012, followed by an M.Sc. in Physics from the International Physics Studies Program at the University of Leipzig in 2007. His educational foundation was completed with studies at the Foreign Language High School in Pleven, Bulgaria. Dr. Ivanov specializes in high-resolution structural, perfusion, and functional mapping of the human cortex and subcortical regions. His research focuses on quantitative MRI techniques to assess tissue vascularization, microstructure, myelination, and iron content. He develops advanced MRI sequences and analysis pipelines for both 7T and 3T systems, with translational applications in neurodegenerative disorders, psychiatric conditions, and neurodevelopmental studies. His work on resting-state and task-based fMRI provides critical insights into neural connectivity and brain dynamics. His publication record demonstrates consistent contributions to ultra-high field MRI methodology, with emphasis on 7T and 9.4T systems. His research spans technical MRI development, quantitative imaging methods, and clinical applications across multiple neurological conditions. Recent work shows increasing focus on translational applications connecting advanced imaging techniques with clinical outcomes. Dr. Ivanov has received numerous scientific awards and successfully secured competitive funding: ERC Marie Curie Program (2023) - 2-year postdoc position Maastricht University-Chinese Science Council PhD Program (2022) Maastricht University Center for Integrative Neuroscience PhD Program (2022) Magnetic Resonance in Medicine issue cover (2017) ISMRM merit award magna cum laude (2013) Trainee abstract travel award from the Organization for Human Brain Mapping (2011) Educational Stipends from the International Society for Magnetic Resonance in Medicine (2009-2011) Dr. Ivanov has successfully mentored postdoctoral researchers and PhD students through competitive funding mechanisms. His research group at the Max Planck Institute for Empirical Aesthetics and his position at Maastricht University support a collaborative environment that bridges physics, neuroscience, and clinical applications. His work with the 7 Tesla MR Core structure provides critical infrastructure for advanced neuroimaging research in Frankfurt. Dr. Ivanov leads the Structural and Physiological Imaging with High-Field MRI research group at the Max Planck Institute for Empirical Aesthetics. His team specializes in pushing the boundaries of ultra-high field MRI technology, developing novel acquisition and analysis methods that enable unprecedented insights into brain structure and function. The group maintains strong collaborations with multiple institutions across Europe and beyond.

• Ultra-high field MRI
• Quantitative MRI techniques
• Brain microstructure imaging
• +7 more

Carsten Klempt is an apl. Prof. (extraordinary professor) at the Institute of Quantum Optics within the Faculty of Mathematics and Physics at Leibniz University Hannover. He serves as Group Leader of the Quantum Atom Optics research group, focusing on ultracold quantum gases and quantum entanglement. His research has significant implications for quantum metrology, atom interferometry, and quantum information processing. Education: 2002: Diploma in Physics from the Johannes Gutenberg University 2001-2002: Diploma thesis at the Institute of Nuclear Physics, University of Mainz "Construction and testing of a BaF2 detector" 1998-1999: Studied at the University of Washington (Seattle) 1996-2002: Physics studies at the Johannes Gutenberg University Mainz 2003-2007: Doctorate at the Institute of Quantum Optics "Interaction in Bose-Fermi quantum gases" 2012: Habilitation in the Faculty of Mathematics and Physics at Leibniz University Hannover: "Nonclassical states in ultracold quantum gases" Professor Klempt's research primarily focuses on quantum optics and atom optics , with particular emphasis on ultracold quantum gases , Bose-Einstein condensates , and quantum entanglement . His work explores the fundamental properties of quantum systems at extremely low temperatures, investigating phenomena such as quantum phase transitions, spin dynamics, and nonclassical states in atomic ensembles. A significant portion of his research addresses practical applications in quantum metrology and precision measurement, developing techniques for atom interferometry and quantum-enhanced sensing. His recent publications demonstrate a strong focus on quantum state tomography , quantum entanglement , and quantum metrology , with particular attention to number-resolved detection of quantum states and the development of advanced techniques for quantum-enhanced measurements. Klempt's work bridges fundamental quantum physics with practical applications in precision measurement technology. Scientific Awards: Lower Saxony Science Prize 2013 (Young Scientist Category) Professor Klempt leads the Quantum Atom Optics group at Leibniz University Hannover, where he supervises numerous PhD students and postdoctoral researchers. His research has been supported by significant funding, including his role as Head of a Junior Research Group in the Cluster of Excellence "Centre for Quantum Engineering and Space-Time Research" (QUEST) from 2008-2013. His work contributes to major collaborative projects such as ELGAR (European Laboratory for Gravitation and Atom-interferometric Research) and SAGE (Space Atomic Gravity Explorer). The Quantum Atom Optics laboratory under Professor Klempt's leadership focuses on experimental investigations of ultracold atomic systems, particularly spinor Bose-Einstein condensates. The group develops advanced techniques for quantum state preparation, manipulation, and measurement, with applications ranging from fundamental tests of quantum mechanics to practical quantum sensors for precision measurements.

• Quantum Optics
• Atom Optics
• Ultracold Quantum Gases
• +5 more

Detlef Beckmann is a Professor and Group Leader in the Electron Transport and Quantum Control research unit at the Institute of Nanotechnology, Karlsruhe Institute of Technology (KIT) . His work focuses on superconductor hybrid structures, investigating the interplay between superconductivity and ferromagnetism to enable spintronics and quantum information processing applications. Research Areas : Superconductivity, Spintronics, Quantum Transport, Mesoscopic Physics, Thermoelectric Effects, Triplet Cooper Pairs Institution : Karlsruhe Institute of Technology (KIT), Institute of Nanotechnology Contact : detlef.beckmann@kit.edu Research Highlights : Investigation of Andreev reflection and bound states at spin-active interfaces for quantum control. Discovery of equal-spin triplet superconductivity at Al/EuS interfaces (Nature Communications 2018). Observation of nonlocal thermoelectric effects and long-range spin transport in superconductors with Zeeman splitting. Analysis of crossed Andreev reflection (CAR) for entangled electron pairs in quantum information. Collaboration : Works closely with theoretical physicists on quantum transport models in hybrid structures.

• Superconductivity
• Spintronics
• Quantum Transport
• +4 more