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Jan von Delft is a Professor (chair) at Ludwig-Maximilians-University (LMU) Munich, working in the Faculty of Physics within the Chair of Theoretical Solid State Physics. His research group consists of postdocs, PhD students, and master's students working on various aspects of strongly correlated electron systems, with physical space located at Theresienstr. 37 (Room A420) in Munich. von Delft's research focuses on correlated electron and spin systems, with particular interest in dynamical and transport properties, quantum impurity models, Hund metals, unconventional superconductors, quantum magnets, and quantum criticality. His methodological expertise includes many-body field theory, parquet formalism (FRG), DMFT, and tensor networks (NRG, DMRG, PEPS, XTRG, etc.). His work bridges theoretical concepts with computational approaches to understand complex quantum phenomena in condensed matter systems. He has developed a distinctive emphasis on real-frequency calculations and numerical methods for studying quantum critical phenomena. Analysis of von Delft's recent publications reveals a strong focus on developing and applying advanced computational methods to study strongly correlated electron systems. His group has made significant contributions to numerical renormalization group techniques, tensor network methods, and the parquet formalism for calculating real-frequency correlation functions. His research shows increasing sophistication in handling quantum criticality, particularly in heavy-fermion systems, and exploring unconventional superconductivity mechanisms. Notably, his group has developed specialized computational libraries like KeldyshQFT to make these advanced methods more accessible to the broader physics community. von Delft actively mentors a substantial research group consisting of one postdoc (Markus Scheb), eleven PhD students (Anxiang Ge, Sasha Kovalska, Mathias Pelz, Marc Ritter, Nepomuk Ritz, Changkai Zhang, Markus Frankenbacher, Felipe Picoli, Simone Fodera, Ming Huang), and two master's students (Ester Pages, Gianluca Grosso). His detailed Style Guide for scientific communication demonstrates his commitment to high-quality research presentation. The group appears well-funded with ongoing research activities spanning theoretical development, computational implementation, and physical interpretation of complex quantum phenomena.

• Correlated electron systems
• Quantum impurity models
• Quantum criticality
• +7 more

Prof. Dr. Amelie Hagelauer holds a professorship in Micro- and Nanosystem Technology at the TUM School of Computation, Information and Technology, Technical University of Munich. Her work focuses on advanced electronics and systems integration across quantum computing hardware, resistive memory technologies, and high-frequency RF systems. She has contributed to innovations in superconducting qubit readout architectures, multi-level RRAM designs, and 3D-integrated CMOS-compatible quantum devices. Research interests span quantum hardware design, nanoelectronic devices, RF front-end systems, and emerging memory technologies. Her work emphasizes practical implementation challenges such as low-power operation, high-voltage handling in RF switches, and wafer-scale fabrication processes. Recent projects include D-band radar systems, energy-efficient 60 GHz transceivers, and antenna tuning solutions for 5G applications. Publications from 2023-2025 showcase advancements in resistive switching device characterization, mitigation of TLS losses in superconducting qubits, and reconfigurable AI accelerators using RRAM-based digital twins. Her work bridges theoretical device physics with practical integrated circuit design, addressing scalability and reliability in next-gen electronics. Awards and grants: None explicitly listed in provided texts. Active collaborations include EU-funded projects on quantum computing platforms and TUM's Electronic Photonic Integration initiatives. Leads research teams in microsystem technology with emphasis on cross-disciplinary approaches combining CMOS processes, MEMS, and quantum engineering.

• Microelectronics
• Nanotechnology
• RF Engineering
• +3 more

Michael Knap is an Associate Professor of Collective Quantum Dynamics at the Technical University of Munich (TUM), within the Department of Physics at the TUM School of Natural Sciences. His research group focuses on condensed matter theory, quantum many-body systems, and quantum simulation. Knap holds office in room 5101.01.037 at James-Franck-Str. 1, 85748 Garching b. München, and can be reached at michael.knap@ph.tum.de or +49 (89) 289 - 53777. Prof. Knap's research delves into the rich physics of quantum many-body systems, particularly exploring non-equilibrium dynamics and transport phenomena in ultracold quantum gases, interacting light-matter systems, and correlated quantum materials. His work spans multiple subfields including topological phases of matter, quantum simulation with trapped ions, fracton physics, and quantum computation. He develops novel numerical approaches based on quantum information theory and utilizes artificial intelligence and machine learning to tackle challenging problems in condensed matter physics. His group's research connects fundamental theoretical questions with experimental implementations in quantum simulators. The analysis of Prof. Knap's recent publications (2023-2025) reveals a strong focus on topological quantum matter, quantum simulation, and emergent phenomena in constrained quantum systems. His work frequently bridges condensed matter theory with quantum information science, as evidenced by publications on fracton hydrodynamics, higher-form symmetries, and quantum error correction. There's a clear progression toward increasingly complex quantum systems and connections to experimental implementations on quantum processors. His research shows significant interdisciplinary reach, connecting condensed matter physics with quantum computing and quantum information theory. ERC Consolidator Grant (2025) ERC Starting Grant (2019) Supervisory Award, TUM Department of Physics (2018) Promotio sub auspiciis Praesidentis rei publicae, Austria (2013) Prof. Knap has established a robust research program supported by prestigious European Research Council grants. His group actively collaborates with both theoretical and experimental groups worldwide, particularly in the quantum simulation community. He has supervised numerous students through Master's Seminars on Collective Quantum Dynamics covering topics like quantum simulation with trapped ions and theoretical quantum computation. His research has received significant attention, with several publications featured as Editors' suggestions and Research Highlights in leading journals. The Collective Quantum Dynamics group maintains strong connections with experimental quantum simulation efforts, particularly in the areas of ultracold atoms and trapped ion systems. Knap's theoretical work often provides frameworks for interpreting experimental results in quantum simulators, creating a productive feedback loop between theory and experiment. His group participates in collaborative research networks focused on advancing quantum simulation capabilities and understanding fundamental aspects of quantum many-body physics.

• Condensed Matter Theory
• Quantum Many-Body Systems
• Non-Equilibrium Quantum Dynamics
• +5 more

Prof. Dr. Robert Blick is a faculty member at the University of Hamburg , leading the Institute for Nanostructure and Solid State Physics under the Faculty of Mathematics, Informatics, and Natural Sciences. He serves as Director of the Center for Hybrid Nanostructures (CHyN) and Head of the Board of Examiners of Nano-Science. Research Focus: Atomic Layer Deposition (ALD), quantum dots, superconducting thin films, biomaterials, and nanomechanical devices. Key Collaborations: Deutsches Elektronen-Synchrotron (DESY), molecular-beam epitaxy groups, Forschungslabor Mikroelektronik Deutschland. His academic contributions span nanoscience, materials growth, and biomedical applications. Current funding includes support from the Deutsche Forschungsgemeinschaft (DFG), Exzellenzcluster CUI, and the Joachim Herz Foundation. The CHyN research group operates a state-of-the-art clean room facility for electron-beam and focused-ion-beam lithography, enabling 8nm feature definition on 6-inch wafers. Applications of his work include memristor technology, quantum devices, and advanced biosensors. His PhD students include Ahmed Alshaikh, Kristian Deneke, Daniel Hensel, Marianna Brede, Daniel Schmidt, Malte Siegmund, and Jan Stelzner. Senior researchers Dr. Stefanie Haugg and Dr. Robert Zierold contribute to materials growth and atomic layer deposition.

• Nanoscience
• Atomic Layer Deposition
• Nanostructuring
• +7 more

Yongjie Yuan is a Researcher at the Technical University of Munich under the Associate Professorship of Computational Photonics within the TUM School of Computation, Information and Technology. His research focuses on quantum cascade devices, Josephson traveling-wave parametric amplifiers, and noise modeling in superconducting circuits. Institution: Technical University of Munich School: TUM School of Computation, Information and Technology Academic Rank: Researcher Email: yongjie.yuan@tum.de Yuan's work integrates quantum mechanics with computational photonics , emphasizing the modeling of superconducting circuits and microwave parametric amplifiers . He investigates dissipative-dispersive systems , flux-driven amplifiers , and nonlinear junction topologies to enhance quantum device performance. Recent publications highlight his contributions to quantum amplifier design , Josephson junction modeling , and noise dissipation analysis in microwave photonics. His research is associated with the EU Project QOMBS, focusing on quantum cascade devices and parametric amplification. Quantum Cascade Devices Josephson Traveling-Wave Parametric Amplifiers Quantum Noise Modeling Nonlinear Circuit Analysis Microwave Photonics Yuan actively participates in teaching and supervising activities, contributing to courses on computational photonics , quantum engineering , and partial differential equations for electrical engineering. He collaborates with researchers like Christian Jirauschek and Michael Haider on quantum device simulations.

• Quantum Photonics
• Computational Electromagnetics
• Quantum Amplifier Design
• +3 more

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.

• Semiconductor Physics
• Quantum Optics
• Nanophotonics
• +3 more

Jun Ye is a Chinese-American physicist affiliated with JILA, the National Institute of Standards and Technology (NIST), and the University of Colorado Boulder. He holds the academic rank of Research Professor and has made groundbreaking contributions to atomic, molecular, and optical (AMO) physics, particularly in precision measurement and quantum control of atomic and molecular systems. Education: BS in Physics (Shanghai Jiao Tong University, 1989), MS in Quantum Optics (University of New Mexico, 1991), PhD in Physics (University of Colorado Boulder, 1997) under Nobel laureate John L. Hall. His research spans ultracold atoms, ultracold molecules, and laser-based precision measurement, including the development of the 3D quantum gas clock with 2.5 × 10⁻¹⁹ frequency precision. He explores applications in gravitational field sensing, dark matter detection, quantum simulations, and fundamental physics tests. Recent work includes thorium nuclear clocks, topological optical lattice clocks, and spin dynamics in ultracold polar molecules. Jun Ye's publications (e.g., 2025 articles) focus on atomic clocks, quantum sensing, and precision metrology, with keywords like quantum physics, atomic physics, and optical engineering. His subfields include frequency combs, spin squeezing, superexchange interactions, and many-body quantum systems. Scientific Awards: Department of Commerce Gold Medal (multiple years), Breakthrough Prize in Fundamental Physics (2022), National Academy of Sciences (2011), Norman F. Ramsey Prize (2019), and numerous fellowships. Patents: Four U.S. patents for frequency combs and laser technology. He leads research at JILA, collaborating with institutions like Caltech and MIT, and has been featured in documentaries such as The Most Unknown (2018). His work bridges experimental physics, quantum information science, and applied photonics.

• Atomic Physics
• Molecular Physics
• Optical Physics
• +4 more

Prof. Felix Motzoi is an Associate Professor at the University of Cologne and Division Leader & Head of the 'Automatic Optimization, Control and Design' group at the Peter Grünberg Institute (PGI-8) in Jülich. His research focuses on advancing quantum technologies, including superconducting and semiconducting architectures, trapped cold atoms/ions, Rydberg qubits, and long-range entanglement. He leads theoretical efforts in quantum control theory, machine learning applications, hardware co-design, and error mitigation strategies. Key research areas include developing optimal control methodologies (e.g., DRAG, STA), numerical optimization, and dynamics modeling for quantum systems. His work bridges theoretical frameworks with experimental implementations, emphasizing practical solutions for scalable quantum computing. Recent publications highlight innovations in quantum gate design, error suppression via pulse shaping, and hybrid optimization techniques combining machine learning with physics-driven approaches. His team collaborates across disciplines to address challenges in qubit coherence, entanglement stabilization, and robust quantum processing.

• Quantum Technologies
• Optimal Control Theory
• Machine Learning
• +6 more

Dr. Anke Kirchner is a Researcher at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden) in the Department of Functional Oxide Layers and Superconductors. Her work focuses on superconducting materials, magnetic systems, and advanced thin-film deposition techniques for applications in levitation and energy-efficient transportation. Her research spans high-temperature superconductivity, nanocrystalline magnetic materials, and REBCO coated conductor development. Key contributions include optimizing artificial pinning centers in superconducting films, analyzing grain boundary structures in permanent magnets, and pioneering microacoustic sol atomization (MASA) for thin-film deposition. Her interdisciplinary approach bridges fundamental materials science with practical engineering applications in transportation and energy. Analysis of her 15 most recent publications (2000-2024) reveals consistent focus on superconducting levitation technologies and REBCO conductor performance enhancement. Her work demonstrates evolution from foundational studies of NdFeB magnet microstructures to cutting-edge innovations in coated conductor joints and tape-stack levitation systems, with strong emphasis on nanoscale characterization and process optimization. No scientific awards are mentioned in the provided text. Information regarding student advising, doctoral supervision, or research grants is not specified in the source material. The department specializes in oxide layer engineering and superconductor development, with Dr. Kirchner contributing to IFW Dresden's internationally recognized research on quantum levitation and magnet-superconductor interactions, frequently collaborating with Prof. L. Schultz on applied superconductivity projects.

• Superconductivity
• Magnetic Materials
• Thin Film Deposition
• +2 more

Andreas W. Rost is a Junior Professor (Assistant Professor) and Group Leader in Scanning Tunneling Microscopy at the University of Stuttgart's Institute for Functional Matter and Quantum Technologies. He collaborates with the Max Planck Institute for Solid State Research, focusing on strongly correlated electron systems and quantum materials at low temperatures. His experimental techniques include Spectroscopic Imaging Scanning Tunneling Microscopy (SI-STM) and thermodynamic studies of single crystals. Education: Diplom thesis at University of Heidelberg (Prof. Hunklinger) PhD at University of St Andrews, Scotland (Prof. Andy Mackenzie) Postdoc at Cornell University (Prof. Seamus Davis) and University of Tokyo (Prof. Hide Takagi) Research Interests: Quantum criticality, unconventional superconductors, designer heterostructures, and low-temperature phenomena. His work bridges traditional thermodynamic experiments and modern microscopy techniques. Team: Current members include Lihui Zhou (Postdoc), Qingyu He (PhD), and Xinglu Que (Master Student). Former members include Jiyeong Kim, Aaron McClendon, and Ivan Pentegov. Labs: Experiments are conducted at the University of Stuttgart and the MPI's precision lab, focusing on quantum material exploration.

• Quantum Materials
• Condensed Matter Physics
• Low-Temperature Physics
• +3 more

Dr. Kenneth Zick is a Research Professor at the University of Southern California's Information Sciences Institute (USC ISI), where he serves as Research Director of Transformational Computing. His work focuses on game-changing computer architectures, hardware, and systems for solving critical government problems, with expertise in unconventional computing, quantum computing, and bio-inspired systems. Ph.D. in Computer Science & Engineering, University of Michigan-Ann Arbor M.S. in Electrical Engineering, University of Texas at Dallas Bachelor's in Electrical Engineering, University of Michigan-Ann Arbor Dr. Zick's research interests span unconventional computing , bio-inspired systems , Ising machines , quantum annealing , FPGA-based solutions , and neuromorphic computing . His group develops hardware-centric algorithm discovery and Cosm, a heuristic algorithm for sparse Ising optimization. Current projects include superconducting digital architectures, analog-digital hybrid computing, and human-AI co-design for breakthrough hardware. His team leverages advanced facilities such as USC ISI's MOSIS 2.0 and the California DREAMS hub in the DoD Microelectronics Commons, with expertise in high-speed I/O, FPGA prototyping, and radiation-hardened systems. He has received a NASA Fellowship for his Ph.D. work and mentored students like Aditi, who won the USC ECE Outstanding Academic Achievement Award.

• Unconventional computing
• Bio-inspired compute systems
• Ising machines
• +7 more

Annabelle Bohrdt is a Professor at the University of Regensburg's Faculty of Physics, affiliated with the Institute of Theoretical Physics. Her research focuses on strongly interacting quantum many-body systems, combining numerical methods, quantum simulation experiments, and machine learning techniques like neural networks. She explores topics such as the Fermi-Hubbard model, t-J model, and stripe formation in doped antiferromagnets. Her work bridges theoretical models and experiments, leveraging quantum gas microscopy and interpretable machine learning tools. Notable contributions include studies on pairing mechanisms in bilayer antiferromagnetic Mott insulators and the role of fluctuations in quantum many-body systems. Bohrdt actively collaborates with experimental groups to validate theoretical predictions. Teaching includes specialized courses on numerical methods for quantum many-body systems and machine learning applications in physics. She advises graduate and undergraduate students on projects in quantum matter and computational physics.

• Theoretical Physics
• Quantum Many-Body Systems
• Quantum Simulation
• +3 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

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.

• Quantum Materials
• Topological Materials
• Angle-Resolved Photoemission Spectroscopy
• +7 more

Prof. Dr. Andrzej M Oleś serves as a Professor at the Institute of Theoretical Physics within the Faculty of Physics, Astronomy and Applied Computer Science at Jagiellonian University in Kraków, Poland. His research centers on condensed matter theory with emphasis on quantum materials and electronic structure phenomena. His primary research interests include spin-orbital coupling in transition metal compounds, electron correlation effects, doping mechanisms in metal oxides, and magnetic phenomena in antiferromagnetic/ferromagnetic systems. He employs advanced theoretical frameworks including model Hamiltonians and density functional theory to investigate quantum phases, lattice dynamics, and topological states in complex materials. Recent publications reveal a strong focus on kagome lattice systems (FeGe, RhPb), infinite-layer nickelates, and quantum computation optimization. His work demonstrates consistent exploration of charge density waves, topological surface states, and nonadiabatic quantum control across high-impact journals including Physical Review series and Condensed Matter. Oleś maintains an extensive international collaboration network with researchers from Italy, the United States, and other European institutions, as evidenced by co-authorship patterns across his publication record. His theoretical contributions address fundamental challenges in strongly correlated electron systems and quantum material design.

• model
• Spin Orbital
• doping
• +7 more