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Michael C. Johnson is a Professor in the Department of Civil and Environmental Engineering at Utah State University (USU), affiliated with the Utah Water Research Laboratory (UWRL). He holds a PhD in Fluid Mechanics and Hydraulics from USU (1996), with research focused on hydraulic modeling, flow meter performance, valve analysis, and dam/spillway design. His work bridges physical and numerical methods, addressing challenges in water resources engineering and infrastructure. Education: PhD, Fluid Mechanics and Hydraulics (Groundwater, Hydrology, Water Resources), Utah State University, 1996 MS, Fluid Mechanics and Hydraulics, Utah State University, 1994 BS, Civil and Environmental Engineering, Utah State University, 1992 Research Interests: Johnson specializes in hydraulic structures, physical and computational fluid dynamics, flow meter calibration, and energy dissipation systems. His work emphasizes practical applications like spillway design, low-head dam safety, and turbine testing. Notable projects include the Lower Baker Dam Spillway model and Archimedes Turbine evaluations. His research often combines laboratory experiments with CFD simulations to optimize water infrastructure performance. Recent Articles Trends: His publications (2019–2025) highlight advancements in CFD modeling for pressure recovery, flow meter accuracy under disturbed conditions, and valve performance optimization. Key themes include improving meter testing protocols, mitigating turbulence effects, and enhancing hydraulic infrastructure resilience. Awards and Recognition: Outstanding Graduate Mentor, 2020 Multiple AWWA Best Paper Awards (2007, 2010, 2012) Outstanding Teacher Awards (2002–2003) Advising & Labs: Johnson has mentored over 25 graduate students, guiding research in areas like valve performance, spillway hydraulics, and meter calibration. He leads the UWRL’s hydraulics team, overseeing projects such as the Orville Dam Spillway model and large-scale physical modeling initiatives. His lab facilities support both experimental and computational approaches to water engineering challenges.

• Hydraulic Engineering
• Fluid Mechanics
• Water Resources Management
• +3 more

Oliver Bühler is a Professor of Mathematics and Atmosphere/Ocean Science at New York University. His research focuses on theoretical fluid dynamics, particularly asymptotic methods applied to geophysical fluid systems. He holds a Ph.D. in Applied Mathematics from the University of Cambridge (1996), an M.S. in Aerospace Engineering from the University of Michigan (1990), and a B.S. in Physical Engineering from Technical University Berlin (1988). Education: Ph.D., Applied Mathematics, University of Cambridge, 1996 M.S., Aerospace Engineering, University of Michigan, 1990 B.S., Physical Engineering, Technical University Berlin, 1988 His research interests include nonlinear wave-vortex interactions, climate dynamics, and applications of fluid dynamics to quantum mechanics and particle diffusion. He authored a seminal textbook on waves and mean flows and has contributed to high-impact studies in Physics of Fluids and Journal of Fluid Mechanics . While no awards or grants are explicitly listed, his work is part of the Center for Atmosphere Ocean Science at NYU.

• Theoretical Fluid Dynamics
• Asymptotic Methods
• Climate Dynamics
• +4 more

Georg Stadler is a Professor of Mathematics and Computer Science at New York University's Courant Institute. His research focuses on computational inverse problems, uncertainty quantification, and PDE-constrained optimization, driven by applications in climate modeling, geophysics, and plasma physics. He holds a PhD from the University of Graz (2004) and has been recognized with awards including the Gordon Bell Prize (2015) and the SIAM Computational Science & Engineering Best Paper Prize (2019). Education: Ph.D. (Dr.), Mathematics, University of Graz, Austria, 2004. M.S. (Mag.), Mathematics, University of Graz, Austria, 2001. M.S., Mathematics and Geometry Education, Graz University of Technology and University of Graz, 2001. Research Interests: Large-scale PDE solvers, Bayesian inverse problems, extreme event probability estimation, and optimization under uncertainty. Applications in climate (sea/land ice, tsunamis), plasma physics (fusion), and computational earth science (mantle flow, plate tectonics). Recent Research Trends: His work emphasizes scalable algorithms for high-dimensional Bayesian inverse problems, with applications to tsunamis, stellarator coil design, and ice sheet dynamics. Recent articles highlight advancements in extreme event probability estimation and robust multigrid solvers for incompressible Stokes equations. Awards: Gordon Bell Prize (2015) for extreme scalability of implicit solvers. SIAM Best Paper Prize (2019) for computational science contributions. Young Scientist ASCINA Award and Springer CSE Prize (2011). Advising & Grants: Current PhD student Sonia Reilly and former advisees include Chen Li and Shanyin Tong. His research is supported by NSF, ONR MURI, and the Simons Foundation. He co-leads the Computational Mathematics and Scientific Computing Seminar at Courant. Labs & Collaborations: Active in Courant’s interdisciplinary groups, focusing on high-performance computing and inverse problems. Collaborates with institutions like UT Austin on mantle dynamics and fusion energy projects.

• Computational Mathematics
• Scientific Computing
• Uncertainty Quantification
• +5 more

Anne Simone Dederichs is an Associate Professor in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), specializing in Structures and Safety. She is actively engaged in research and teaching in fire safety engineering, combustion dynamics, and evacuation modeling. Her work spans academic, industrial, and policy-relevant domains, with strong collaborations across Scandinavia. Doctoral Degree, Dept. of Fire Safety Engineering, Lund University (1998–2004) Master of Science, Niels Bohr Institute, University of Copenhagen (1991–1997) Bachelor of Science, Niels Bohr Institute and Department of Mathematical Sciences, University of Copenhagen (1991–1996, 1991–1995) Her research focuses on fire safety engineering , evacuation dynamics , universal design in safety systems , and sustainable construction materials . She has led seminars and EU meetings on computational fluid dynamics in combustion and turbulent combustion, and she teaches in fire chemistry, fire dynamics, and risk management. Her work contributes to UN Sustainable Development Goals related to sustainable cities and inclusive design. Recent publications show a trend toward integrating digital tools like Building Information Modeling (BIM) into fire safety, analyzing evacuation inclusivity (e.g., on ships), and evaluating fire risks of new sustainable materials. Her research bridges experimental analysis, modeling, and real-world application in buildings and industrial settings. She has held external positions as a Senior Research Scientist at RISE (Research Institutes of Sweden) and as a Researcher at Lund University. She has supervised PhD projects on composite material aging and fire safety compliance through BIM. Anne is actively involved in project leadership and collaboration, particularly in Nordic research networks. She has organized post-graduate courses and authored teaching materials in fire safety and chemical kinetics.

• Fire Safety Engineering
• Combustion and Fire Dynamics
• Evacuation Modeling
• +7 more

Chris Rogers is a Professor of Statistical Science within the Department of Pure Mathematics and Mathematical Statistics (DPMMS) at the University of Cambridge, actively contributing to research at the intersection of probability theory, stochastic analysis, and financial applications. His academic profile reflects deep engagement with mathematical finance and theoretical probability through publications and departmental affiliations. His research spans financial mathematics, probability theory, stochastic analysis, statistics, and mathematical economics, with emphasis on rigorous mathematical frameworks for financial markets. Key themes include option pricing mechanisms, stochastic process modeling, and geometric probability applications, often addressing real-world financial instruments like Asian options and S&P500 index behaviors through advanced probabilistic techniques. Analysis of his 15 most recent publications (2016-2018) reveals consistent focus on stochastic calculus applications in finance, particularly Lévy processes, diffusion models, and optimal stopping problems. His work bridges theoretical probability with quantitative finance, demonstrating expertise in translating complex stochastic phenomena into financial modeling solutions across asset pricing, risk assessment, and market analysis domains. No scientific awards were documented in the provided source material. Information regarding PhD/Master's student supervision, research grants, or collaborative teams was not specified in the available texts, indicating absence of such details in the source documentation.

• Financial mathematics
• probability theory
• stochastic analysis
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Dr. Mohammad Yazdani-Asrami is a Lecturer in Electrically Powered Aircraft and Operations at the Autonomous Systems & Connectivity (ASC) division of the James Watt School of Engineering, University of Glasgow. He leads research in electrification and cryo-electrification of transportation, particularly in aviation, leveraging applied superconductivity and AI techniques. His research interests span the Electrification and cryo-electrification of power and transportation systems Design of superconducting components (machines, cables, fault current limiters) for aviation Application of AI, machine learning, and big data in engineering and superconductivity Hydrogen electrolysis, production, and integration in aerospace and power networks His recent publications demonstrate a strong trend toward intelligent modeling and AI-driven solutions in superconducting technologies, with a focus on electric aircraft, fault protection, and thermal management using cryogenic fluids. Dr. Yazdani-Asrami has received notable scientific recognition, including: UK Royal Academy of Engineering Global Talent (2021) Young Professional of the Year, Cryogenic Society of America (2023) He actively supervises PhD students and hosts visiting researchers. His advising portfolio includes Alireza Sadeghi, Kerr Smith, Dedao Yan, Giacomo Russo, and Fábio Gregório. He has secured funding from the EPSRC, University of Glasgow, and CSC for PhD students. He also supports postdoctoral fellowships from the Royal Academy of Engineering, Leverhulme Trust, and Marie Skłodowska-Curie actions. He is involved in several research groups and collaborations, particularly within the Aerodynamics, Propulsion and Electrification group. His editorial roles include serving on the boards of Superconductor Science and Technology , World Journal of Engineering , Aerospace Systems , and others. He regularly contributes to major conferences such as the Applied Superconductivity Conference and the International Conference on Magnet Technology.

• Electrification of Transportation
• Cryo-electrification
• Applied Superconductivity
• +12 more

George Haller is a Professor at the Department of Mechanical and Process Engineering at ETH Zurich . He leads the Institute of Mechanical Systems and holds the Chair in Nonlinear Dynamics . His research focuses on: Nonlinear dynamical systems theory Data-driven model reduction Spectral submanifolds (SSMs) Coherent structure identification in fluids and solids Control of complex nonlinear systems His recent work emphasizes equation- and data-driven modeling across solids, fluids, and control systems . Key contributions include: SSMTool - a MATLAB package for nonlinear model reduction SSMLearn - open-source software for data-driven modeling Transport barrier detection algorithms with oceanographic applications Scientific accolades include: 2025 Lyapunov Award (ASME) 2023 Stanley Corrsin Award (APS) Fellowships: ASME, APS, SIAM External Member, Hungarian Academy of Sciences His group has trained notable alumni: Thomas Breunung (Assistant Professor, University of Wisconsin-Madison) Shobhit Jain (Assistant Professor, Delft University of Technology) Mattia Serra (Assistant Professor, UCSD) Publications span Nonlinear Dynamics, Nature Communications , and Physical Review Fluids , with a 2025 book Modeling Nonlinear Dynamics for Equations and Data (SIAM Press). Current projects include: Reduced-order modeling of fluid-structure interactions Control of soft robots via nonlinear dynamics Identifying material barriers in turbulence

• Nonlinear Dynamics
• Model Reduction
• Data-Driven Modeling
• +4 more

Dr. Nicolas Francois is an Associate Professor in the Department of Materials Physics at Australian National University (ANU), specializing in experimental geomaterials physics, soft matter, and fluid hydrodynamics. He leads the X-ray Tomography and Applications Research Group, combining curiosity-driven and applied research in out-of-equilibrium systems. ARC Industry Fellow (2024-2030): Improving Australian iron ore comminution for green steel production ARC DECRA Fellow (2016-2018): Biofilms in two-dimensional turbulent flows His research spans fundamental questions in: Fragmentation of solid materials Autonomous devices powered by chaotic flows Hydrodynamic waves Stochastic thermodynamics Granular matter Polymer rheology and applied areas in: Comminution of geomaterials Mechanics of fractured rocks Wave-energy conversion Environmental fluid mechanics Publications reveal a trajectory focused on X-ray tomography applications, granular dynamics, and turbulence-driven systems. He utilizes advanced imaging techniques to study material failure mechanisms and fluid-structure interactions, contributing to fields ranging from green steel production to biofilm dynamics. Current student projects and grants emphasize sustainable resource processing and fundamental fluid physics.

• Geomaterials Physics
• Soft Matter
• Structured Materials
• +13 more

Ming-Jun Lai is a Professor in the Department of Mathematics at the University of Georgia. His career spans decades, focusing on multivariate splines, sparse solutions of linear systems, wavelet theory, and their applications in numerical analysis and machine learning. Education: Lai received his Ph.D. from Texas A&M University and completed postdoctoral training at the University of Utah. He has supervised 22 Ph.D. students and two current Ph.D. candidates. Multivariate Splines: Applied to scattered data fitting, numerical PDE solutions, image enhancement, and surface design. Sparse Solutions: Used in compressed sensing, low-rank matrix recovery, and graph clustering. Wavelet Theory: Construction of biorthogonal and tight wavelet frames for image edge detection. Optimal Transport: Numerical solutions for Monge-Ampère equations. Research Trends (2025–2023): Recent work includes interpolating space curves with geometric continuity, spherical spline smoothing, and applications in machine learning, particularly graph clustering and optimal control in biological systems. Scientific Awards: UGA Research Medal (2002) McCay Award (2013) Advisees: Lai has mentored 24 Ph.D. students, including Zhaiming Shen (2024), Jinsil Lee (2023), and current students Valerio Palamra and Ye Tian. Laboratory & Collaborations: He collaborates with institutions like Georgia Tech, UCLA, and Zhejiang University, applying splines in aerospace engineering and biomedical imaging.

• Multivariate Splines
• Sparse Solutions of Underdetermined Linear Systems
• Wavelet Theory
• +8 more

Emmanuel Detournay is a Professor at the University of Minnesota and a Member of the National Academy of Engineering. His research focuses on geomechanical processes including hydraulic fracturing, rock cutting, and the mechanics of fluid-infiltrated geomaterials. Research Interests: Modeling singular behavior near hydraulic fracture tips, poroelastic effects from fluid leak-off, hydraulic fracture initiation at boreholes, energy dissipation in rock cutting, and rock failure modes. Publications highlight advancements in coupled fracture mechanics-geochemical models, CO2 mineralization in ultramafic rocks, and dynamic modeling of drilling systems. Scientific Awards Member of the National Academy of Engineering

• Geomechanics
• Hydraulic Fracturing
• Rock Mechanics
• +3 more

Full Professor in Analysis at the Department of Mathematics and Computer Science of the University of Basel. Born in Lecco, Italy in 1981, Dr. Crippa received his PhD in Mathematics in 2008 from the Scuola Normale Superiore di Pisa and the University of Zurich. His office is located at Spiegelgasse 1, 5th floor, Basel, Switzerland. Dr. Crippa's primary research focuses on mathematical analysis of fluid dynamics, with particular expertise in partial differential equations, geometric measure theory, and transport phenomena. His work bridges theoretical mathematics with applications in fluid mechanics and turbulence theory. He leads multiple significant research projects including an ERC Starting Grant and several national and international collaborations. His recent publications explore the interplay between transport, dissipation, and mixing in incompressible flows, contributing to fundamental understanding of fluid behavior. Dr. Crippa's research demonstrates strong connections between pure mathematical analysis and physical fluid phenomena, with implications for both theoretical understanding and practical applications. Notable Awards and Grants: ERC Starting Grant FLIRT (Fluid Flows and Irregular Transport) SNF Project FLUTURA (Fluids, Turbulence, Advection) DFG SPP 2410 CoScaRa (Hyperbolic Balance Laws in Fluid Mechanics) DFG-SNF Project with Emil Wiedemann on inhomogeneous and compressible fluids Dr. Crippa actively supervises research and is currently recruiting for PostDoc positions starting in Spring or Fall 2025. He encourages excellent candidates to apply for Swiss Government Excellence Scholarships under his supervision. His research group participates in multiple collaborative projects between Swiss and German research institutions. He is involved in several academic seminars including the Analysis Seminar, BZ Seminar in Analysis (Basel, Zurich), and Perlen Kolloquium, contributing to the vibrant mathematical community at the University of Basel and beyond.

• Partial Differential Equations
• Geometric Measure Theory
• Transport and Flows with Irregular Velocity Fields
• +5 more

Alexandros Kontogiannis is a research fellow at the University of Cambridge, Department of Engineering, specializing in fluid dynamics and applied mathematics. His work combines Bayesian inference, machine learning, and physics-informed algorithms to solve inverse problems in magnetic resonance velocimetry (MRV) and fluid-structure interaction. EPSRC National Fellow in Fluid Dynamics Member of Energy, Fluids and Turbomachinery Division Research Focus: Development of digital twin frameworks that integrate MRV data with Navier-Stokes equations to reconstruct flowfields, infer rheological parameters in non-Newtonian fluids, and estimate hidden quantities like pressure and wall shear stress. Key innovations include: Physics-informed compressed sensing for sparse MRV data Simultaneous boundary shape and flowfield estimation Bayesian turbulence model parameter learning Scientific Awards: ASME Fluids Engineering Division Graduate Student Scholar (2021) Technical Chamber of Greece (TEE) Award (2018) Limmat Foundation Academic Excellence (2017) Mentzelopoulos Scholarship for international studies (2017) Greek State Scholarships Foundation Award (2012) Key Contributions: Algorithms for 3D flow reconstruction with adaptive discretization, viscous signed distance field regularization, and multi-objective aerodynamic shape optimization. His methodologies enable 27x reductions in MRI scanning time while maintaining diagnostic accuracy.

• Fluid Dynamics
• Applied Mathematics
• Bayesian Inference
• +10 more

Kohei Nakajima is an Associate Professor at the Department of Intelligent Mechano-Informatics, Graduate School of Information Science and Technology, The University of Tokyo. He holds concurrent positions at the Department of Creative Informatics and the Next Generation Artificial Intelligence Research Center (AI Center). As an Endowed Chair in Advanced Artificial Intelligence Education, he leads the Physical Intelligence Lab, which focuses on the intersection of soft robotics, nonlinear dynamics, and physical computing. His research interests center on Physical Reservoir Computing (PRC), a paradigm that exploits the natural dynamics of physical systems for computation, with applications in soft robotics, spintronics, and quantum machine learning. Nakajima's work demonstrates how physical systems can inherently process information without traditional digital computation, leveraging phenomena like chaos, bifurcations, and embodied intelligence. Nakajima's publications reveal a strong focus on understanding how physical systems can perform computational tasks. His recent work spans from biological applications (jellyfish cyborgs, ostrich-inspired robotics) to fundamental theoretical advances in reservoir computing. The research demonstrates how physical phenomena can be harnessed for information processing, with implications for energy-efficient computing and novel robotic control paradigms. As the organizer of the Reservoir Computing Seminar, Nakajima has built a vibrant research community exploring the nature of information processing across disciplines. His lab actively recruits graduate students and postdocs, indicating strong research momentum and institutional support for his work in physical intelligence.

• Soft Robotics
• Physical Reservoir Computing
• Physical Deep Learning
• +5 more

Dr. Tamas Mona is a Postdoctoral Research Associate in the Department of Plant Sciences at the University of Cambridge , affiliated with the Epidemiology and Modelling Group . His work focuses on environmental suitability models for large-scale epidemiological forecasting, particularly in wheat rust outbreaks across Africa, the Middle East, and Asia. Collaborations include the UK Met Office, CIMMYT, and institutions in Ethiopia, Kenya, Bangladesh, and Nepal. PhD in Environmental Sciences (2019), Eötvös Loránd University MSc in Meteorology (2013), Eötvös Loránd University BSc in Physics with Meteorology (2011), Eötvös Loránd University Research interests integrate meteorological applications with epidemiological models to predict crop disease outbreaks. Key projects involve tracking transmission pathways for stem rust pathogens and analyzing how irrigation creates green bridges for intercontinental pathogen spread. Publications emphasize environmental science and computational epidemiology . Current collaborations span Sub-Saharan Africa (EIAR, ATI, KARLO) and South Asia (BWMRI, NARC) through initiatives like the Global Food Security IRC . Modeling frameworks developed by Mona contribute to policy advisory systems for emerging pest threats, aligning with DEFRA and UK government strategies.

• Epidemiology
• Plant Pathology
• Meteorology
• +5 more

Dr. Dandolo Flumini is a Researcher at the Zurich University of Applied Sciences (ZHAW), School of Engineering, specializing in Applied Complex Systems Science. His research focuses on artificial life, morphological computation, blockchain applications, and computational modeling. He serves as team member or project lead in multiple interdisciplinary initiatives including Bio-HhOST (bio-hybrid tissues), Agroforestry Carbon Token System, and blockchain-based voting solutions. His primary research interests include: Complex Systems Science : Emergent behaviors in biological and artificial systems Morphological Computation : Physical systems performing computational tasks Artificial Chemistry : Programmable chemical systems using droplet networks Blockchain Applications : Decentralized finance and voting systems Computational Ethics : Responsible implementation of AI and modeling Flumini's recent publications (2019-2023) demonstrate strong focus on microfluidic systems, droplet agglomeration physics, programmable chemistry, and ethical AI. His work frequently appears in artificial life and computational modeling venues, with increasing emphasis on real-world applications in sustainability and decentralized systems. He maintains active collaborations through the Applied Complex Systems Science research group at ZHAW, contributing to projects involving microfluidic device design, blockchain architectures, and bio-hybrid tissue engineering.

• Complex Systems Science
• Artificial Life
• Morphological Computation
• +3 more