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Prof. Jens Markus Melenk is a Professor at TU Wien's Faculty of Mathematics and Geoinformation, leading the Computational Mathematics Research Group (E101-02-1). His research focuses on advanced numerical methods for partial differential equations, with a strong emphasis on hp-FEM (hp-Finite Element Method), fractional diffusion equations, and wave propagation problems. He has contributed significantly to the development of robust and efficient algorithms for complex domains and heterogeneous media. Key research interests include the application of hp-FEM to fractional operators (e.g., integral fractional Laplacian), boundary element methods (BEM), and the analysis of wavenumber-explicit convergence for Maxwell's equations and elastic wave equations. His work bridges theoretical analysis and computational implementation, addressing challenges in multiscale problems and singular perturbations. Notable contributions: Exponential convergence of hp-FEM for fractional Laplacian problems, wavenumber-explicit error estimates for wave equations in heterogeneous media. Collaborations: Active involvement with researchers like Markus Faustmann, Christoph Schwab, and Dirk Praetorius. Supervised theses: Includes works on hp-FEM for fractional operators, RBF interpolation, and error estimators for elliptic PDEs. His research group develops and analyzes numerical schemes for challenging PDE scenarios, with applications in electromagnetism, acoustics, and computational mechanics.

• hp-Finite Element Method (hp-FEM)
• Fractional Diffusion Equations
• Boundary Element Method (BEM)
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Jeannot Trampert is a Professor of Geophysics at Utrecht University since 2004. He has held leadership roles such as Head of the Department of Earth Sciences (2015–present) and Research Director of the same department (2009–2015). His research spans inverse theory, seismic tomography, wave propagation, and seismic data processing, with a focus on anisotropy, density imaging, and pattern recognition techniques. Education Habilitation (2001), Strasbourg University, Dissertation: Understanding and interpreting seismic tomography PhD (1990), Strasbourg University, Dissertation: Borehole seismology and tomography , Supervisor: Michel Cara Research Interests Full waveform inversion and inverse theory Seismic tomography (uncertainty analysis and thermo-chemical interpretation) Wave propagation in complex media Advanced seismic data processing using pattern recognition Seismic interferometry Scientific Awards Elected member of The Royal Netherlands Academy of Arts and Sciences (2018) Elected member of Academia Europaea (2016) ERC Advanced grant, EU (2012) Dutch National Science Foundation (NWO) top-grant (2010) Marie Curie Fellowship (1990) Teaching and Supervision Trampert has taught foundational and advanced courses at Utrecht University since 1990, including Data Processing and Inverse Theory , Thermodynamics and Internal Structure of the Earth , and Applied Geophysics . He supervises 5 PhD students, 3 postdocs, and 2 undergraduate projects annually.

• Inverse theory
• Mineral physics
• Seismology
• +7 more

Prof. Dr. Thomas Franosch is a Full Professor of Theoretical Physics at the Universität Innsbruck, Department of Theoretical Physics. His research focuses on transport phenomena in complex systems, including crowded and disordered media, active matter, non-equilibrium systems, and the glass transition. He leads the Bio and Nano Physics research group and has held academic positions at institutions such as Friedrich-Alexander-Universität Erlangen-Nürnberg and Ludwig-Maximilians Universität München. His career includes a PhD from TU München (1996) and postdoctoral research at Harvard University (1998-2000). He has contributed extensively to understanding dynamics in confined colloidal systems, mode-coupling theories for glass transitions, and active particle dynamics. His work bridges theoretical frameworks with applications in soft matter and biophysics. Research interests emphasize time-dependent nonlinear response, anomalous transport, and the interplay between geometry and dynamics in confined environments. Recent publications explore light-induced caging effects in colloids, Anderson localization in fluctuating media, and stochastic dynamics of active particles. Publications span over two decades, with a focus on theoretical models explaining complex fluid behavior. Notable contributions include studies on confined hard-sphere fluids, Lorentz gas models, and active matter systems. His work frequently employs advanced simulation techniques and mode-coupling theory to analyze non-equilibrium phenomena.

• Transport in crowded and disordered media
• Time-dependent nonlinear response
• Active and non-equilibrium systems
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Lothar Nannen is an Associate Professor at Vienna University of Technology's Institute of Analysis and Scientific Computing. His research focuses on finite element methods, scattering and resonance problems in open systems, and transparent boundary conditions for wave propagation modeling. Key research areas: Computational Waves, Hardy space infinite elements, time-harmonic systems Current work: 2024 publications on Krylov eigenvalue solvers for wave problems Nannen contributes to teaching through courses on numerical analysis and differential equations, with oral exams conducted by appointment. He actively publishes in journals like Computers & Mathematics with Applications and Numerische Mathematik , emphasizing numerical methods for wave scattering and resonance analysis.

• Finite Element Methods
• Scattering Problems
• Resonance Problems in Open Systems
• +4 more

Adrian Constantin is a Professor at the Department of Mathematics, Faculty of Mathematics, University of Vienna. With an ORCID identifier (0000-0001-8868-9305) and an active research career, he has published 78 research papers and contributed to 6 significant research projects. His work bridges rigorous mathematical analysis with practical applications in geophysical fluid dynamics, establishing him as a leading researcher in the field. Research Focus Constantin's primary research interests include fluid dynamics , water waves , ocean currents , and atmospheric flows . He has made substantial contributions to understanding nonlinear wave phenomena , particularly wave-current interactions in both oceanic and atmospheric contexts. His research often examines fluid dynamics on rotating spheres , providing mathematical frameworks for complex geophysical systems including polar vortices, equatorial undercurrents, and planetary atmospheric flows. Publication Trends Constantin's recent work demonstrates a consistent focus on mathematical aspects of geophysical fluid dynamics, with increasing emphasis on polar regions and planetary atmospheres. His publications frequently involve collaborations, most notably with R. Johnson, and address complex nonlinear problems in wave propagation and vortex dynamics. He has developed exact solutions for various geophysical flow scenarios and analyzed stability properties of atmospheric and oceanic systems, with particular attention to the Arctic Ocean and equatorial phenomena. His approach combines asymptotic analysis with rigorous mathematical techniques to model real-world geophysical observations. Scientific Recognition Recipient of at least one significant scientific prize (as indicated by 'Prizes (1)' in his Scopus profile) Extensive citation record across his publications, with some papers exceeding 100 citations Active presence in social media and news outlets discussing his research Research Leadership Constantin has led or contributed to multiple research projects (6 mentioned in profile) spanning from 2008 to 2025, demonstrating sustained research leadership. His collaborations extend internationally with researchers from various institutions. While specific student names aren't listed in the scraped data, his extensive publication record suggests supervision of graduate students in mathematical fluid dynamics. His 2016 book 'Fourier analysis. Part I. Theory' indicates educational contributions to the field.

• Fluid Dynamics
• Water Waves
• Ocean Currents
• +4 more

Prof. Wim van Saarloos is a Professor of Theoretical Physics at Leiden University, Netherlands. He holds administrative roles as Vice President and President-elect of the Royal Netherlands Academy of Arts and Sciences (KNAW) and previously led the National Organisation for Scientific Research (NWO) and the FOM Foundation. His research focuses on theoretical physics, including non-equilibrium pattern formation, soft matter, and front propagation dynamics. He has supervised 15 PhD students and 20 postdocs. Key honors include the Physica Prize and Fellow of the American Physical Society. Education: B.Sc. in Physics (cum laude, Delft University of Technology, 1978–1973), Ph.D. in Theoretical Physics (cum laude, Leiden University, 1982). Professional roles include Director of the Lorentz Centre (1997–2009) and research at AT&T Bell Labs (1984–1990). His work bridges fundamental physics and applied problems in granular media and complex fluids. Research highlights include foundational studies on front propagation into unstable states, published in a seminal 2003 review. His recent articles explore bubble dynamics, colloidal systems, and jamming transitions. He has over 155 peer-reviewed publications, cited 6,472 times (h-index 42).

• Theoretical Physics
• Statistical Physics
• Condensed-Matter Physics
• +7 more

Costas Synolakis serves as Professor of Civil Engineering at the University of Southern California and Professor at the Technical University of Crete, while holding leadership roles at Greece's Academy of Athens as Secretary of the Natural Sciences Division since 2019. His career spans foundational theoretical work and practical applications in tsunami science, supported by directorship of USC's Tsunami Research Center since its 1998 founding. Educated at Caltech with BSc, MSc, and PhD degrees, Synolakis pioneered critical insights into wave physics and tsunami dynamics. His research integrates hydrodynamics, coastal resilience, and emergency management, with seminal contributions to runup theory and hazard assessment that inform global disaster preparedness standards. This work bridges mathematical modeling and real-world implementation through extensive field surveys. Analysis of his publication record reveals consistent focus on tsunami mechanics since the 1980s, evolving from solitary wave theory to complex hazard modeling. Recent work emphasizes nuclear safety implications (Fukushima analysis) and paleotsunami reconstruction, demonstrating interdisciplinary reach across engineering, geology, and policy. His major recognitions include: International Coastal Engineering Award (2019) Sergey Soloviev Medal (2014) Moffatt and Nichol Award (2015) Presidential Young Investigator Award (1989) Membership in Academy of Athens (2016) Mentoring over 50 graduate students with emphasis on diversity, Synolakis secured €6+ million in research grants while leading 23 international tsunami surveys. His Tsunami Research Center drives innovation through collaborations with agencies worldwide, producing influential documentaries and media outreach that translate complex science for public safety. Current initiatives focus on enhancing tsunami warning systems through real-time modeling and expanding coastal resilience frameworks in vulnerable regions, leveraging his dual academic appointments for transnational impact.

• Tsunamis
• Coastal Engineering
• Natural Disasters
• +8 more

Stefan Rotter is a Professor at the Institute for Theoretical Physics , Vienna University of Technology (TU Wien), leading a research group focused on wave propagation in complex media, non-Hermitian physics, and quantum optics. His work bridges fundamental and applied research, with collaborations spanning institutions in Austria, France, Israel, the U.S., and beyond. Quantum ping-pong effects in cavities Exceptional point engineering Wavefront shaping for light control Scattering-invariant modes Non-Hermitian dielectric design Recent publications include Nature and Nature Photonics articles on disordered media and quantum cascade lasers, alongside Science papers on perfect absorption and topological lasing. The group has trained numerous PhD students (e.g., Lukas Rachbauer, Matthias Kühmayer), with alumni now holding positions globally. While no awards are explicitly attributed to Rotter in the text, his team's collaborative publications and lectures (e.g., finalist for TU Wien's Best Lecture Award) highlight its academic influence.

• Wave Propagation in Complex Media
• Non-Hermitian Physics
• Theoretical Quantum Optics
• +8 more

Alfredo Soldati serves as University Professor of Fluid Mechanics at Vienna University of Technology since 2016 and holds a part-time Full Professor position at the University of Udine since 2007. His international experience includes visiting appointments at the Kavli Institute for Theoretical Physics, Scuola Superiore Sant'Anna, and École Polytechnique Fédérale de Lausanne. His educational background features a Dr.-Ing. PhD in Chemical Engineering from the University of Udine (1989-1993) followed by research at UC Santa Barbara (1991-1995). Soldati's research centers on turbulent multiphase flows with environmental and industrial applications, specializing in droplet, bubble, and fiber dynamics in turbulence. His work combines advanced computational modeling with experimental techniques including the TU Wien Turbulent Water Channel facility, addressing fundamental questions of interfacial phenomena and heat transfer in complex flows. Analysis of his 15 most recent publications (2022-2024) reveals consistent focus on multiphase turbulence in channel flows, particularly oil-water systems and particle-laden flows. The research demonstrates strong emphasis on interfacial wave propagation, droplet deformation mechanisms, and fiber transport dynamics with applications spanning environmental pollutant dispersion to industrial process optimization. His distinguished recognition includes: Freeman Scholar Award, ASME, 2020 Fellow of EUROMECH, 2020 International Prize and Gold Medal, Accademia delle Scienze di Torino, 2018 Lewis F. Moody Award, ASME, 2015 Fellow of the American Physical Society, 2013 Robert T. Knapp Award, ASME, 2007 Soldati actively supervises graduate research with ten documented theses covering turbulence modeling, multiphase flow experiments, and computational fluid dynamics. His work receives support from national and international funding bodies including the Austrian Science Fund and European research programs, facilitating collaborations with institutions across Europe and North America. He leads the research group at TU Wien's Institute of Fluid Mechanics and Heat Transfer, operating the Turbulent Water Channel facility and contributing to the 'Network Lab' for advanced fluid dynamics research, with current projects focusing on micro-plastic transport and industrial multiphase flow applications.

• Turbulent Multiphase Flow
• Fluid Mechanics
• Heat Transfer
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Stefan Rotter is a Professor of Theoretical Physics at TU Wien’s Institute for Theoretical Physics, part of the Faculty of Physics. His research group focuses on non-Hermitian physics, theoretical quantum optics, and wave propagation through complex media. He obtained his PhD in 2004 and served as a postdoc at Yale University before establishing his group in 2011. Key collaborations include work with teams in France, Scotland, and Israel, exploring topics like quantum ping-pong, microwave focusing, and neural network-based signal processing. His group’s work has been featured in journals like Nature Photonics and Physical Review Letters , addressing fundamental limits in optics and quantum systems. They also engage in educational efforts, with courses like Quantum Theory I shortlisted for TU Wien’s Best Lecture Award. Research interests emphasize non-Hermitian degeneracies, wavefront shaping, and quantum information theory. Notable projects include designing optical cavities for perfect absorption, optimizing microwave focusing in disordered environments, and advancing quantum sensor technologies. Rotter’s team has pioneered methods to reach theoretical precision limits (Cramér–Rao bound) using neural networks. They also investigate applications in quantum communication, nanophotonics, and metamaterials. His group has produced over 30 PhD graduates and postdocs, including recipients of prestigious grants like the Erwin Schrödinger Fellowship. Supported by initiatives such as the Excellence Cluster ‘Quantum Science Austria’, their work bridges theory and experiment, with notable contributions to the 2025 International Year of Quantum Science. Rotter actively collaborates with institutions like IST Austria and the Hebrew University of Jerusalem, driving interdisciplinary advancements in quantum technologies and optics.

• Non-Hermitian Physics
• Theoretical Quantum Optics
• Wave Propagation in Complex Media
• +3 more

Giancarlo Ruocco is a Full Professor of Condensed Matter Physics at Sapienza University of Rome since 2000, concurrently serving as Director of the Center for Life NanoScience (CLNS) at the Italian Institute of Technology (IIT) since 2011. He previously held leadership roles as Director of Sapienza's Physics Department (2007-2013) and Vice Rector for Research Policy (2010-2014), demonstrating sustained academic leadership across four decades. He earned his Laurea in Physics, summa cum laude, from Sapienza University of Rome in 1981, progressing through academic ranks at L'Aquila University (Assistant Professor 1984-1992, Associate Professor 1992-2000) before his appointment at Sapienza. His career reflects deep institutional commitment with progressive responsibilities. Ruocco's research centers on disordered systems (glasses/liquids) using advanced spectroscopic techniques like Brillouin scattering and inelastic X-ray scattering. He pioneered novel microscopy methods for mechanical property analysis, recently expanding into biosystems with focus on protein aggregation in neurodegenerative diseases. His interdisciplinary work bridges condensed matter physics, biophysics, and computational biology, increasingly integrating physics with biomedical applications through nanotechnology. Recent publications (2017-2021) reveal strong interdisciplinary convergence, with key themes including Brillouin microscopy for cellular mechanobiology, spin glass dynamics modeling, protein aggregation mechanisms, and confined liquid physics. His work demonstrates growing integration of experimental physics with cancer biology (organelle partitioning) and virology (SARS-CoV-2 spike protein dynamics), highlighting leadership in translating physical techniques to biomedical challenges. Major recognitions include: Membership in the Ukraine National Academy of Sciences (2021) ERC Synergy Grant ASTRA (2019) for protein aggregation research in neurodegenerative diseases He mentors a large multidisciplinary team of approximately 30 postdoctoral researchers and 20 PhD students (biologists, chemists, engineers, physicians, physicists) at CLNS/IIT. His research is funded by competitive grants including the ERC Synergy Grant, and he founded the "SOFT" Research Center at INFM (2004-2008). His leadership spans national and international collaborative projects in nanotechnology and life sciences. As Director of CLNS at IIT, Ruocco oversees a state-of-the-art facility dedicated to nanotechnology applications in biomedicine. The center hosts his "Nanotechnology for Neuroscience" research line, integrating physics, biology, and engineering expertise to develop innovative tools for neuroscience research and therapeutic development, particularly in neurodegenerative disease mechanisms.

• Condensed Matter Physics
• Disordered Systems
• Spectroscopy
• +7 more