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Gerhard NaegeleView profile

Researcher

• Biological Soft Matter
• Colloidal Systems
• Protein Dynamics
• +3 more

Prof. Dr. Gerhard Naegele is a senior researcher at the Institute for Biological Information Processes (IBI) within the Research Center Jülich GmbH . His primary role is in the Biomacromolecular Systems and Processes (IBI-4) department, focusing on theoretical and computational studies of biological soft matter. His research emphasizes colloidal systems, protein dynamics, and phase behavior in quasi-two-dimensional environments. Key research areas include: Structure and dynamics of charged colloids, microgels, and protein solutions Competitive interactions in dispersions and their impact on clustering and phase transitions Modeling ultrafiltration processes and membrane technologies Computational methods such as mode-coupling theory and multiparticle collision dynamics His work bridges theoretical physics, chemistry, and biophysics, with applications in biomaterials, drug delivery, and industrial filtration. Recent studies explore stimuli-responsive microgels and the rheological properties of soft matter systems. Notable contributions include: Development of advanced simulation frameworks for complex fluids Analysis of cross-flow filtration efficiency under varying conditions Experimental-theoretical collaborations on protein aggregation and colloidal stability His laboratory is part of the broader Helmholtz Association, emphasizing interdisciplinary research in energy, health, and materials science.

Alexandre BlaisView profile

Professor

• Quantum Information Science
• Quantum Computing
• Superconducting Quantum Circuits
• +3 more

Professor Alexandre Blais is a leading researcher in quantum information science at the University of Sherbrooke's Faculty of Science, where he leads the Superconducting Quantum Circuit Theory research group (TheSQuaD) within the Quantum Institute. His work focuses on understanding quantum states of mesoscopic devices and applying quantum optics tools to these systems, with particular expertise in circuit QED with superconducting qubits. Blais' research spans multiple areas of quantum computing, including superconducting circuits, quantum error correction, quantum measurement, and quantum control. His group develops theoretical frameworks for quantum information processing using superconducting quantum circuits, with applications to quantum computing and quantum optics. They collaborate extensively with experimental groups worldwide to bridge theory and practice in quantum information science. His recent publications demonstrate continued leadership in advancing quantum computing technologies, with research spanning transmon qubits, quantum error correction, quantum measurement techniques, and quantum control methods. Blais' work shows a consistent focus on solving practical challenges in building scalable quantum computers, particularly through innovative approaches to qubit design, control, and measurement. Fellow of the American Physical Society (2018) Rutherford Memorial Medal of the Royal Society of Canada (2018) Prix Urgel-Archambault, Association francophone pour le savoir (2014) Herzberg Medal from the Canadian Association of Physicists (2011) NSERC E.W.R. Steacie Memorial Fellowship (2010) Professor Blais has mentored numerous students who have gone on to prominent positions in academia and industry, including faculty positions at Yale, MIT, University of Sydney, and research scientist roles at Google Quantum AI, Microsoft Quantum, and Rigetti Computing. His group operates within the state-of-the-art Quantum Institute building at the University of Sherbrooke, fostering a collaborative environment for theoretical and experimental quantum research.

• Quantum Field Theory
• Statistical Field Theory
• Lattice Field Theory
• +2 more

Professor Ronald Raymond Horgan is a faculty member in the Department of Applied Mathematics and Theoretical Physics at the University of Cambridge . He contributes to the Theoretical High Energy Particle Physics Group , focusing on Quantum and Statistical Field Theory , Lattice Field Theory , and Diffusion Processes . Research Interests : His work bridges Particle Physics and Statistical Mechanics , with key contributions to Lattice QCD , NRQCD , and fluctuation-driven interactions in quantum and classical systems. Publications highlight heavy quark physics , weak decay matrix elements , and disordered dielectric systems . Publication Trends : Recent articles span B-meson mixing , quarkonium spectroscopy , flavor physics , and stochastic processes . Methodologies include lattice simulations , effective field theory , and non-equilibrium statistical mechanics . Contact : R.R.Horgan@damtp.cam.ac.uk | Personal Homepage

• Financial Risk Management
• Econometrics
• Algorithmic Contract Standards
• +3 more

Prof. Henriette Elise Breymann is a Professor in the Department of Finance, Risk Management and Econometrics at the ZHAW School of Engineering, Zurich University of Applied Sciences (ZHAW). Her research focuses on financial risk modeling, algorithmic contract standards (ACTUS), big data analytics, and regulatory technology (RegTech). She has led numerous projects, including Data Driven Financial Risk and Regulatory Reporting, Strengthening Swiss Financial SMEs through Reinforcement Learning, and Explainable AI in Credit Risk Management. Her work intersects finance, physics, and computational methods, with contributions to energy economics (e.g., renewable energy systems), high-frequency financial data analysis, and quantum chaos applications. She co-authored Unified Financial Analysis: The Missing Links of Finance (2009) and pioneered the ACTUS framework for standardizing financial contracts. Projects: 12+ leadership roles in applied finance, risk modeling, and energy systems. Key Expertise: Regulatory reporting, stress testing, and data-driven financial systems. ACTUS Standard: Global initiative for granular financial contract representation. Her research spans interdisciplinary collaborations, including the Risk- and Finance-Lab, and has been presented at major conferences like the Society for Economic Measurement. She advises on regulatory innovations and financial resilience strategies for SMEs.

Germain VallverduView profile

Associate Professor

• Theoretical Chemistry
• Computational Chemistry
• Molecular Dynamics
• +4 more

Germain Vallverdu is an Associate Professor in Theoretical Chemistry at the Université de Pau et des Pays de l'Adour (UPPA), affiliated with the Institute of Analytical Sciences and Physico-Chemistry for Environment and Materials (IPREM). His research focuses on developing computational strategies to study complex systems, particularly surfaces/interfaces, chemical reactivity, and spectroscopy. He holds a PhD in Theoretical Chemistry from Université Paris-Sud 11 (2009) and conducted postdoctoral research at CEA-DAM on mesoscopic models for shock waves. His work integrates multi-scale approaches and numerical simulations. Education: PhD in Chemistry (Theoretical Chemistry), Université Paris-Sud 11 (2006–2009) Magistère de Physico-Chimie Moléculaire, Université Paris-Sud 11/ENS Cachan (2003–2006) Master's in Molecular Chemical Physics, Université Paris-Sud 11 (2004–2006) Bachelor's in Chemical Physics, Université Paris-Sud 11 (2003–2004) Research Interests: Vallverdu’s research combines theoretical chemistry, molecular dynamics, and spectroscopy to study surfaces/interfaces, particularly in energy storage materials (e.g., lithium oxides) and petroleum chemistry (e.g., asphaltene aggregation). He develops computational tools for core-level binding energy calculations and multi-scale simulations. Key Projects: RS2E : French network on electrochemical energy storage C2MC : Molecular characterization of complex matrices Advising & Grants: No students listed. Contributions include grants for energy storage and materials science projects. His GitHub repositories (e.g., gVallverdu ) highlight computational tool development for chemistry applications. Labs & Teams: Active in the IPREM Institute, collaborating on experimental-theoretical studies of surfaces and interfaces.

Tettamanti TamásView profile

Professor

• Road Traffic Modeling and Control
• Traffic Simulation
• Intelligent Transportation Systems (ITS)
• +3 more

Tettamanti Tamás is a Full Professor and Deputy Head of the Department of Control for Transportation and Vehicle Systems at the Budapest University of Technology and Economics (Faculty of Transportation Engineering and Vehicle Engineering). He holds a DSc from the Hungarian Academy of Sciences and has extensive experience in academic roles, progressing from PhD student (2007–2010) to Associate Professor (2019–2024) and Full Professor (2025–present). His research focuses on road traffic modeling, control systems, and intelligent transportation solutions, with significant contributions to automated transport and emission analysis. Education highlights include a PhD in 2013 and habilitation in 2023, alongside a jazz trumpet diploma from Kőbánya Music Studio. He has led major projects like the EU-funded MoveCit initiative and collaborated with institutions like the HUN-REN Institute and BME ITS Ltd. His work spans academic leadership, industry partnerships, and international research networks (e.g., COST Actions TU1305 and CA162222). Key research interests include traffic simulation tools (SUMO, VISSIM), autonomous vehicle integration, and urban mobility optimization. He has developed Python tools for traffic emission analysis and co-authored manuals for simulation software. His awards include the BME Jubilee Medal (2023), Michelberger Price (2022), and repeated recognition as a 'Best 100 Professor'. Tettamanti has held editorial roles at IEEE Access and Communications in Transportation Research, and contributed to conferences like the European Control Conference and Transport Research Arena. His interdisciplinary approach bridges engineering, computer science, and environmental sustainability, addressing challenges in smart cities and automated driving systems.

• Structural Engineering
• Materials Science
• Non-Destructive Testing
• +3 more

Antonino Spada is an Associate Professor of Engineering at the University of Palermo, affiliated with the Polytechnic School. His research focuses on structural mechanics, materials science, and non-destructive evaluation techniques. He has contributed extensively to computational methods such as FEM-VEM coupling, global-local modeling for ultrasonic guided waves, and interphase analysis in quasi-brittle materials. His work bridges theoretical modeling with experimental validation, particularly in composite materials, masonry structures, and fracture mechanics. Teaching responsibilities include courses like Science of Construction and Statics , covering topics such as marine technology engineering, building innovation, and structural analysis. He has been actively involved in academic activities since at least 2010, with a strong publication record in top-tier journals and conference proceedings. Research interests span advanced numerical techniques (e.g., meshless methods, finite element modeling), wave propagation for defect detection, and durability assessment of civil infrastructure. His work integrates computational homogenization, fracture mechanics, and experimental validation to address challenges in composite materials and historical masonry structures.

Thomas IhleView profile

Professor

• Statistical physics of active matter
• Kinetic theory of swarms and flocks
• Soft condensed matter physics
• +4 more

Prof. Thomas Ihle is a leading researcher at the University of Greifswald , heading the Soft Matter Theory group. His work bridges statistical physics , active matter , and computational modeling . Biology-inspired statistical and computational physics Statistical physics of active matter Kinetic theory of swarms and flocks Soft condensed matter physics Pattern formation far from equilibrium His research focuses on active matter systems , studying how energy uptake from the environment generates non-equilibrium phenomena like flocking, pattern formation, and memory effects. He uses kinetic theory and multi-particle collision dynamics to derive hydrodynamic equations and simulate complex liquids. Key trends in his recent publications include non-reciprocal interactions , exact collision operators , and hyperuniformity in active systems. Collaborations span institutions like Humboldt University Berlin , Northwestern University , and University of Gothenburg . Awards: Outstanding Referee 2017 (American Physical Society). Students: Mentored Jakob Mihatsch , Rüdiger Kürsten , and others in Master’s/Bachelor’s theses . Teaching includes a group seminar on active matter held every Friday.

Gretchen CampbellView profile

Adjunct Professor

• Ultracold Atomic Gases
• Quantum Fluids
• Bose-Einstein Condensates
• +5 more

Gretchen Campbell is an Adjunct Professor at the University of Maryland and Co-Director of the Joint Quantum Institute (JQI). Her research focuses on ultracold atomic gases, particularly Bose-Einstein condensates (BECs) and their applications in studying quantum fluids and superfluidity. She leads experiments on atom circuits and ultracold strontium systems, exploring analogs of superconducting electronics and cosmological phenomena. Key projects include persistent currents in superfluid rings, Rayleigh-Taylor instabilities in quantum fluids, and grating magneto-optical trapping techniques. Her work bridges quantum simulation, condensed matter physics, and precision measurement. Recent advancements include the creation of sodium BECs in hybrid traps and strontium BECs for quantum simulation. She has pioneered atomtronic devices, such as superfluid SQUID analogs, and used expanding BECs to model cosmic phenomena like Hubble friction. Campbell also holds an appointment as Associate Vice President overseeing UMD’s quantum initiatives, reflecting her leadership in quantum science education and research. Research Groups: JQI, RQS (Quantum Simulation Group) Labs: Sodium Atom Circuits Lab, Ultracold Strontium Experiment Her team includes graduate students and postdocs working on topics like quantum control systems, narrow-line spectroscopy, and experimental instrumentation. Notable contributions include the development of programmable systems for atomic physics and ultra-low noise drivers for precision experiments.

Imre VargaView profile

Associate Professor

• Condensed Matter Physics
• Quantum Chaos
• Disordered Systems
• +4 more

Imre Varga is an Associate Professor at the Department of Theoretical Physics, Budapest University of Technology and Economics. His office is located in Room F III. GF 8, and he can be contacted via email at varga.imre@ttk.bme.hu or by phone at +36 1 463 1059. Dr. Varga's research focuses on theoretical physics with emphasis on: Disordered quantum systems and Anderson localization transitions Multifractality in critical random matrix ensembles Quantum chromodynamics at high temperatures Quantum chaos and mesoscopic transport phenomena Finite-size scaling at metal-insulator transitions His publications predominantly explore critical phenomena in condensed matter and high-energy physics, with recurring themes of multifractal analysis, disorder effects, and quantum transport. Recent works investigate complexity measures in quantum systems (2025), phase space entropies (2022), and Dirac operator spectra in QCD (2015). No scientific awards or student advising relationships are mentioned in the available information. Laboratory affiliations, team collaborations, or grant information are not specified in the provided materials.

Henning MoritzView profile

Professor

• Strongly correlated quantum systems
• Quantum phase transitions
• Interacting fermions in optical lattices
• +6 more

Henning Moritz is a Professor at the University of Hamburg, leading the Quantum Matter Group at the Institute for Quantum Physics (IQP). His research focuses on quantum many-body systems, ultracold atomic gases, and quantum simulation. University of Hamburg (since 2010) ETH Zürich Postdoc (2006-2010) PhD at ETH Zürich (2001-2005) Graduate studies at Heidelberg (1998-2001) Rotary Scholar at Cambridge (1997-1998) Undergraduate at Heidelberg (1995-1997) His research explores strongly correlated quantum systems , nonequilibrium quantum dynamics , and low-dimensional quantum phenomena using ultracold atoms in optical lattices. Key interests include quantum phase transitions, transport in quantum systems, and mesoscopic physics. Recent publications highlight quantum simulation of superfluids (2025), quantum computing optimization methods (2023), and dimensionality effects in fermionic superfluids (2022-2021). Research spans quantum optics, condensed matter, and ultracold atom applications. Scientific Awards : ERC Starting Grant (2013), two teaching awards (2012, 2014), Swiss Physical Society Prize (2005), Otto-Haxel Prize (2002), Rotary Scholarship (1997) Moritz leads quantum simulation experiments at the Hamburg Centre for Ultrafast Imaging and is funded through projects like MesoFermi (2013-2018) and SFB 925 (2011-2023).

Alexandros VasilopoulosView profile

Researcher

• Statistical Mechanics
• Condensed Matter Physics
• Computational Physics
• +3 more

Dr. Alexandros Vasilopoulos is a Senior Research Officer at the School of Mathematics, Statistics and Actuarial Science (SMSAS) at the University of Essex. He holds a PhD in Physics from Coventry University (2024). His research focuses on computational statistical mechanics, particularly phase transitions in lattice models such as the Blume-Capel, Ising, and Baxter-Wu systems. He specializes in advanced simulation techniques including Monte Carlo methods and GPU-accelerated algorithms. Dr. Vasilopoulos has published extensively on critical phenomena, universality classes, and finite-size scaling in two-dimensional spin systems. His work addresses both equilibrium and nonequilibrium dynamics under various external conditions, such as nonantisymmetric magnetic fields and quenched disorder. He collaborates with international teams to conduct massive-scale simulations and analyze energy/magnetization distributions at critical points. Recent projects include studying tricriticality in the triangular Blume-Capel ferromagnet and exploring exotic dynamics in mesoscopic spin systems. His contributions advance understanding of universality in diluted models and computational efficiency in high-performance physics simulations.

Gabriel LandiView profile

Associate Professor

• Theoretical Quantum Information Sciences
• Open Quantum Systems
• Quantum Thermodynamics
• +3 more

Professor Gabriel Landi is an Associate Professor in the Department of Physics and Astronomy at the University of Rochester since 2022. Previously, he held positions at UFABC (2013-2016) and the University of São Paulo (2016-2022). He received his PhD in Physics from the University of São Paulo in 2012. His research focuses on theoretical quantum information sciences, particularly open quantum systems, quantum thermodynamics, and quantum metrology. He explores reformulating thermodynamic laws in quantum-coherent contexts, addressing fundamental questions and proposing applications in quantum sensing and computing. Landi is an associate editor at PRX Quantum and a member of the Brazilian Physical Society, recognized with the 2022 Robert E. Marshak Lectureship. His research interests include quantum stochastic processes, thermodynamic irreversibility, quantum resource theories, and the interplay between coherence and thermodynamic efficiency. Landi’s work bridges theoretical frameworks with experimental applications, such as quantum heat engines and energy harvesting devices. He contributes to interdisciplinary efforts, including quantum information’s role in high-energy physics strategy updates. Landi’s recent publications (2023–2025) address topics like quantum battery dynamics, fluctuation theorems, collision models, and entropy production in non-equilibrium systems. His studies emphasize precision in quantum thermometry and the foundational aspects of quantum coherence in thermodynamic processes.

Mathis FrickeView profile

Researcher

• Analysis
• Fluid Dynamics
• Wetting Dynamics
• +3 more

Dr. Mathis Fricke is a researcher in the Department of Mathematics at TU Darmstadt, affiliated with the Mathematical Modeling and Analysis (MMA) Institute. His work focuses on computational fluid dynamics, wetting processes, and mathematical modeling of multiphase systems. He specializes in numerical methods such as the Volume-of-Fluid (VOF) technique and Level-Set approaches, with applications to capillary dynamics, surfactant transport, and interface tracking in complex geometries. His research bridges experimental validation with numerical simulation, addressing challenges in fluid mechanics, energy systems, and biomedical engineering. Key areas of expertise include dynamic contact angle modeling, multiphase flow simulations using OpenFOAM modules, and optimization of fluid transport in microfluidic systems. He has contributed to advancing numerical frameworks for unstructured meshes and has collaborated on projects involving Bayesian model calibration and error quantification for energy economy systems. Dr. Fricke's work is characterized by interdisciplinary collaboration, combining analytical mathematics with high-performance computing. His publications span topics such as capillary rise dynamics, tribology measurements, and eigenmode analysis of slip-induced flows. Despite no explicitly listed awards, his contributions to computational methodologies have been recognized through his active role in the MMA Institute and academic collaborations. He maintains a lab/office in L2|06 411, Peter-Grünberg-Straße 10, Darmstadt, and is accessible via fricke@mma.tu-darmstadt.de.

• Theoretical Physics
• Quantum Mechanics
• Condensed Matter Physics
• +4 more

Professor Vittorio Penna holds the position of Full Professor at the Department of Applied Science and Technology (DISAT), Politecnico di Torino. His professional journey includes roles as a researcher since 1991 and scientific coordinator for national projects like PRIN MIUR. He has been a visiting scholar at institutions such as Los Alamos National Laboratory, ICTP Trieste, and The Open University. Education: Laurea (M.Sc. equivalent) in Physics from Torino University (1983), PhD in Physics (1989). Professional milestones include post-doctoral research grants and international collaborations. He has supervised 12 doctoral theses and contributes to teaching advanced physics courses like Quantum Mechanics and Statistical Mechanics. Research focuses on theoretical physics of matter, including quantum phase transitions in Bose-Hubbard models, dynamics of massive vortices in superfluids, and coherent states applications. Key areas span bosonic mixtures, superconductivity, and ultra-cold atoms. His work addresses phenomena like Josephson effects, dynamical instabilities, and entanglement in mesoscopic systems. Awards include Outstanding Referee accolades from APS (2011) and IOP (2021, 2023). He serves on editorial boards and has coordinated research networks on quantum collective phenomena and coherent fluids. His publications (119+) explore topics from vortex dynamics to quantum simulators, emphasizing interdisciplinary connections between theory and experiment. Current roles include membership in the Doctoral Board of Physics at Politecnico di Torino and leadership in research groups like Nanophysics and Quantum Systems (DISAT). His projects often involve mesoscopic arrays, binary condensates, and topological materials, reflecting a sustained focus on cutting-edge quantum physics.