Find Academic Supervisors

• Marine Hydrodynamics
• Numerical Hydrodynamics
• Experimental Hydrodynamics
• +3 more

Trygve Kristiansen is a Professor in the Department of Marine Technology at the Norwegian University of Science and Technology (NTNU). His research focuses on marine hydrodynamics, numerical methods, and experimental studies. Key areas include wave-structure interactions, aquaculture systems, and offshore renewable energy. He holds a PhD in Marine Hydrodynamics from NTNU (2009) and a MSc in Numerical Mathematics from NTNU (2002). Research interests span moonpool resonance, nonlinear wave loads on offshore structures, hydrodynamic loads on subsea modules, and floating solar islands. His work integrates computational fluid dynamics with experimental validation, addressing challenges in fluid-structure interaction and environmental applications. Recent publications highlight advancements in modeling marine vegetation effects, hydrodynamic interactions between structures, and statistical wave force analysis. He has contributed to understanding monopile ringing, bilge keel damping, and subsea module hydrodynamics. Collaborations include SINTEF and international institutions, emphasizing applied marine technology solutions. His advising and grant activities reflect a commitment to advancing offshore engineering and sustainable marine systems. Key projects include studies on floating modular structures and environmental impacts of aquaculture.

Emilie DufresneView profile

Lecturer

• Algebra
• Commutative Algebra
• Algebraic Geometry
• +5 more

Dr. Emilie Dufresne is a Lecturer in Algebra at the Department of Mathematics, University of York, where she has been employed since September 2018. She is a founding member of the UK-wide research network for Applied Algebra and Geometry, which is funded by the London Mathematical Society, the Edinburgh Mathematical Society, and the Glasgow Mathematical Journal Trust. Prior to her current position, she held prestigious fellowships including the Anne McLaren Fellowship at the University of Nottingham (2017-2018) and the LMS Grace Chisholm Young Fellowship (2015-2016). Her research focuses on the intersection of commutative algebra and algebraic geometry, with particular expertise in invariant theory, separating invariants, and applications to mathematical modeling. Dr. Dufresne's work bridges pure mathematics with practical applications, especially in structural identifiability and reparameterization of ODE models with time-series or steady-state data. Her recent publications demonstrate a strong trajectory in applying algebraic methods to biological systems and complex dynamical models. Analysis of her recent publications reveals a consistent focus on applying algebraic geometry and commutative algebra to solve problems in mathematical biology and physical systems. Her work shows increasing interdisciplinary collaboration, particularly with biologists and physicists, while maintaining strong theoretical foundations in invariant theory. The emergence of topological data analysis in her recent work indicates an expanding methodological toolkit for tackling complex systems. LMS Grace Chisholm Young Fellow (2015-2016) Anne McLaren Fellow (2017-2018) Dr. Dufresne actively supervises PhD students, currently advising Danny Hendron (since 2023) and Simon Hart (2020-2025), both co-supervised with Michael Bate. Her research has been supported by collaborations with major mathematical societies including the London Mathematical Society, Edinburgh Mathematical Society, and Glasgow Mathematical Journal Trust, which fund the UK-wide Applied Algebra and Geometry research network she co-founded. She maintains active international collaborations with researchers across Europe and North America. As a founding member of the UK-wide research network for Applied Algebra and Geometry, Dr. Dufresne participates in and helps organize collaborative research activities across the country. She has also been involved in specialized workshops such as the Workshop for women in commutative algebra (WICA III), which she co-chaired in 2024, demonstrating her commitment to community building and supporting underrepresented groups in mathematics.

Alban SauretView profile

Associate Professor

• Fluid Dynamics
• Thermal Sciences
• Multiphase Systems
• +5 more

Alban Sauret is an Associate Professor and Vice Chair in the Department of Mechanical Engineering at the University of California, Santa Barbara. His research focuses on multiphase systems, fluid dynamics, and interfacial phenomena with applications in environmental science, industrial processes, and geophysical hazards. He leads interdisciplinary projects combining experiments, modeling, and simulations to understand particle-fluid interactions in complex flows. Education: PhD from IRPHE/Aix-Marseille University, MSc and BSc in Physics from École Normale Supérieure de Lyon. Research Interests: Fluid dynamics of granular materials, tsunami generation via subaerial landslides, coating technologies using capillary forces, and microfluidic clogging mechanisms. His work bridges fundamental physics with practical engineering solutions for energy efficiency and sustainable processes. Articles highlight advancements in wave dynamics, granular collapse modeling, and particle deposition techniques. Key contributions include predictive tsunami models and novel methods for mitigating clogging in microfluidic systems. Recipient of the NSF Early CAREER Award, he collaborates across disciplines to address challenges in environmental engineering and materials science.

Demosthenes KivotidesView profile

Senior Lecturer

• Nonlinear Physics
• Statistical Physics
• Computational Physics
• +5 more

Dr. Demosthenes Kivotides is a Senior Lecturer in Chemical and Process Engineering at the University of Strathclyde's Faculty of Engineering. His research focuses on Vortex Dynamical Turbulence, encompassing superfluids, plasmas, and incompressible flows. He holds a PhD from RWTH Aachen University, an MASt from the University of Cambridge, an MSc from Stanford University, and an MEng from the Aristotle University of Thessaloniki. Prior to his current role, he has held positions at institutions including Caltech, UCSB, Imperial College London, and Aalto University. His work explores nonlinear, statistical, and computational physics, with notable contributions to superfluid helium-4 vortex dynamics and gravitomagnetic effects on turbulence. A co-investigator on the EPSRC-funded Doctoral Training Partnership (2015–2020), he supervises doctoral candidates and collaborates on projects bridging fundamental theory and societal impact. Research outputs include animations and talks available on YouTube. Key research areas: Quantum turbulence and vortex filament behavior Superfluid-normal fluid interactions High Reynolds number phenomena Magnetohydrodynamic interactions

Marek TylutkiView profile

Assistant Professor

• Ultracold Quantum Gases
• Superfluidity
• Topological Defects
• +4 more

Marek Tylutki is an Assistant Professor at the Warsaw University of Technology, specializing in theoretical and computational condensed matter physics. His research focuses on ultracold quantum gases, particularly the dynamics of vortices and topological defects in superfluids, as well as spin-imbalanced phases in lattice models like the Hubbard model. He has extensively studied the Kibble-Zurek mechanism and quantum droplet behavior, with notable contributions to understanding vortex reconnections across the BCS-BEC crossover. His work spans experimental collaborations (e.g., solitonic vortex observations in Bose-Einstein condensates) and computational studies of quantum annealing systems (e.g., D-Wave device analysis). He has explored exotic phases such as the Fulde-Ferrell-Larkin-Ovchinnikov state and Sarma phase in fermionic superfluids, alongside magnetic soliton dynamics in Rabi-coupled systems. Recent interests include dissipation mechanisms in fermionic Josephson junctions and quantum engineering education initiatives at his institution. Publications highlight interdisciplinary approaches at the intersection of quantum fluids, many-body physics, and quantum information science. His research bridges theoretical predictions with experimental realizations in cold atom systems and quantum technologies.

Kenan ÇiçekView profile

Associate Professor

• Photonics
• Optical Sensors
• Hydrogen Detection
• +5 more

Assoc. Prof. Kenan Çiçek is affiliated with Iğdır University's Faculty of Engineering, Department of Electrical and Electronics Engineering. He holds a Doctorate from the University of Bristol (2016), an M.Sc. from Atatürk University (2011), and a B.Sc. from Atatürk University (2008). His research focuses on photonics, optical sensors, hydrogen detection, and nanomaterials for energy storage. Key projects include palladium-based hydrogen sensors, supercapacitor electrode materials, and integrated photonics applications. Research Interests: Optical vortex beam manipulation using integrated photonics High-sensitivity hydrogen sensors via plasmonic and micro-ring resonators Self-healable PVA-based supercapacitor materials Nanomaterial synthesis for energy storage and sensor applications Grants & Projects: Spintronics applications for multiferroic materials synthesis (TÜBİTAK 1001) Optical trapping using integrated vortex beam emitters (TÜBİTAK 1002) Silicon nano-ring plasmonic sensors (High-Q factor) He has advised 2 master's theses and teaches courses in optical sensors, power electronics, and microelectronics. Administrative roles include Department Head (2017) and International Student Office Coordinator (2018).

Jeremy BloxhamView profile

Professor

• Planetary Geophysics
• Magnetic Field Dynamics
• Dynamo Theory
• +4 more

Jeremy Bloxham is the Mallinckrodt Professor of Geophysics at Harvard University's Department of Earth and Planetary Sciences. His research focuses on planetary interior dynamics, particularly magnetic field generation in Earth's core and gas giant planets like Jupiter and Saturn. He has served as Harvard's Department Chair (2000-2006) and Dean of Science (2006-2018), returning to full-time faculty afterward. Education: BA in Mathematics (Cambridge, 1982); PhD in Geophysics (Cambridge, 1986). His work pioneered numerical models of Earth's dynamo and expanded to planetary magnetism through NASA's Juno mission (Jupiter Co-Investigator since 2004). Key achievements include first self-consistent Earth core dynamo models and uncovering Jupiter's deep zonal jets extending thousands of kilometers below clouds via Juno gravity data. Research Interests: Planetary magnetic field dynamics, interior structure determination through magnetic and gravity measurements, dynamo theory in terrestrial and giant planets, and time-dependent core flow analysis. Active in Juno mission science team since 2011. Recent Publications Trends: Focus on Juno mission results including Jupiter's magnetic field morphology, deep zonal flow dynamics, and core-envelope interactions. Also continues Saturn dynamo modeling and comparative analysis of Uranus/Neptune magnetic anomalies. Awards: Macelwane Medal (AGU, 1994), Chapman Medal (RAS, 2001), Royal Society Fellowship (2007), Honorary Pembroke College Fellow (2008) Advising/Grants: Long-term Juno mission involvement (NASA funding); no student names listed in provided texts. Led NSF-funded projects on planetary dynamo simulations and Earth's core flow reconstructions. Labs/Teams: Bloxham Group at Harvard, Juno Science Team member since 2004.

Francisco J Beron-VeraView profile

Research Professor

• Oceanography
• Fluid Dynamics
• Lagrangian Coherent Structures
• +3 more

Francisco Beron-Vera is a Research Professor at the Rosenstiel School of Marine, Atmospheric, and Earth Science at the University of Miami. His research focuses on fluid dynamics, oceanography, and geophysical flows, with a particular emphasis on Lagrangian coherent structures, marine eddies, and environmental transport processes. He has contributed to studies on inertial particle dynamics, Sargassum drift modeling, and the application of nonlinear dynamics to understand ocean circulation patterns. His work integrates numerical modeling, observational data analysis, and theoretical frameworks to explore climate interactions, marine debris behavior, and environmental risk assessment. Key areas of research include: Analysis of ocean currents and their climatic impacts Development of Maxey-Riley models for Sargassum and marine debris transport Investigation of Lagrangian coherent structures and their role in fluid mixing Study of baroclinic instability and thermal ocean flow properties Environmental vulnerability assessments for oil spills in the Gulf of Mexico His recent publications emphasize interdisciplinary approaches, combining fluid mechanics, geophysics, and ecological modeling to address challenges in marine environmental science. He has received grants supporting research on North Atlantic Deep Water pathways, Gulf of Mexico connectivity, and the dynamics of Loop Current rings.

Artur WolekView profile

Assistant Professor

• Robotics
• Control Systems
• Aerospace Engineering
• +7 more

Artur Wolek is an Assistant Professor in the Department of Mechanical Engineering and Engineering Science at the University of North Carolina at Charlotte. He is a resident faculty member of the NC Battery Complexity, Autonomous Vehicle and Electrification Research Center (BATT CAVE) and an affiliate faculty member of the Charlotte Aviation Innovation and Research Institute (Charlotte AIR). His Honors Faculty status (term ending June 30, 2030) underscores his academic distinction. Wolek earned his B.S. and Ph.D. in Aerospace Engineering from Virginia Tech (2010 and 2015). He held postdoctoral roles at the U.S. Naval Research Laboratory (2015-2018) and the University of Maryland (2018-2020), and was an Adjunct Lecturer at Catholic University of America (2017-2018). He joined UNC Charlotte in 2021 and founded the Autonomous Robots and Systems Laboratory (ARSL). His research focuses on autonomous systems, including aerospace and marine robotics, optimal motion planning, multi-robot coordination, and trajectory optimization. Key areas include vehicle dynamics and control, path planning in complex environments, and adaptive data collection. His work has been supported by NSF, AFOSR, and other agencies. Wolek teaches courses in dynamics, robotics, and aerospace engineering. He is a Senior Member of AIAA and IEEE, and actively publishes over 55 peer-reviewed articles. His lab locations include Duke Centennial Hall and BATT CAVE Research Building.

Qazi HoqView profile

Professor

• Solitary Waves
• Mathematical Physics
• Dynamical Systems
• +3 more

Qazi Hoq is a Professor of Mathematics at Western New England University. His research focuses on solitary waves, mathematical physics, and nonlinear dynamics, particularly in the context of quantization of spin direction and symmetry breaking phenomena. Education B.A., Angelo State University M.S., Texas Tech University Ph.D., University of North Texas Research Interests Multidimensional solitary waves and their existence, stability, and quantization properties Applications in nonlinear optics and Bose-Einstein condensates Dynamical systems and nonlinear partial differential equations Continuum theory, including embeddings of tree-like continua in the plane Article Trends Hoq's work spans mathematical physics, focusing on discrete and continuous nonlinear systems. His research includes stability analysis of solitons, vortex dynamics, and collapse behaviors in higher-dimensional lattices. He frequently collaborates on numerical simulations and theoretical models for nonlinear wave propagation.

Bartosz ProtasView profile

Professor

• Applied Mathematics
• Computational Fluid Dynamics
• Optimization and Control Theory
• +9 more

Bartosz Protas is a Professor in the Department of Mathematics and Statistics at McMaster University , where he served as Director of the School of Computational Science & Engineering (2009-2019) and currently holds the Chair of the Department. His research bridges computational fluid dynamics, optimization theory, and applied mathematics, focusing on extreme behavior in fluid models, vortex dynamics, and electrochemical systems. Research Themes: Finite-time singularity formation in Navier-Stokes/Euler equations, vortex stability analysis via shape calculus, optimal turbulence closures, electrochemical inverse problems with binder migration and dendrite growth, and Riemann-Hilbert applications in fluid mechanics. Collaborations: Kyoto University (Takashi Sakajo), University of Rouen (Ionut Danaila), University of Michigan (Charles Doering), and industrial partners like General Motors. Awards & Invitations: JSPS Visiting Fellow (2017), SHARCNET Chair (2003), and multiple visiting professorships at top European institutions. Advising: Supervised 15+ Ph.D./M.Sc. students including Diego Ayala (recipient of Canadian Applied Mathematics Society's Cecil Graham Award) and Vladislav Bukshtynov. His recent publications analyze lithium plating in batteries, singularities in 3D Euler flows, and Sobolev gradient methods for PDE optimization.

• Quantum Optics
• Quantum Photonics
• Ultracold Atomic Physics
• +6 more

Kali Wilson is a Senior Lecturer and Royal Society University Research Fellow at the University of Strathclyde's Department of Physics within the Faculty of Science. She leads the Experimental Quantum Optics and Photonics Group, focusing on quantum fluid dynamics using ultracold atoms and photon superfluids. Her research spans quantum turbulence, many-body quantum systems, and superfluid dynamics. Wilson bridges experimental techniques from atomic physics, nonlinear optics, and imaging communities to study fundamental phenomena like vortex dynamics in Bose-Einstein condensates and photon droplet formation. Her work with Cs-Yb quantum mixtures enables exploration of beyond mean-field physics. Analysis of her publications reveals a consistent focus on quantum fluid phenomena across both atomic and photonic systems. Her research demonstrates strong interdisciplinary connections between condensed matter physics, quantum optics, and fluid dynamics, with growing emphasis on quantum simulation platforms using ultracold atomic mixtures. Scientific Awards: Royal Society University Research Fellowship (2021) Chancellor’s Fellowship at University of Strathclyde (2021) US Department of Energy Office of Science Graduate Research Fellowship (2010) As Principal Investigator on two major projects including 'Vortex Rings, Knots, and Kelvin Waves' (2024-2026) and 'Probing emergence in ultracold quantum mixtures' (2021-2025), Wilson secures significant research funding from the Royal Society. Her experimental groups at Strathclyde develop cutting-edge apparatus for quantum mixture studies, building on her expertise in ultracold atom and photon fluid experiments established during prior positions at Durham, Heriot-Watt/Glasgow, and Arizona. Wilson directs the Experimental Quantum Optics and Photonics Group which operates advanced laser cooling systems and quantum simulation platforms. Her team develops novel techniques for manipulating superfluid circulation and studying quantum turbulence analogues in both atomic and photonic systems.

• Fluid Dynamics
• Biomechanics
• Marine Biology
• +3 more

John O. Dabiri is a faculty member at California Institute of Technology , focusing on fluid dynamics, biomechanics, and marine biology. His research explores aquatic locomotion, vortex dynamics, and animal-fluid interactions, often in collaboration with institutions like Roger Williams University and the Marine Biological Laboratory. Research Interests : Hydrodynamics of swimming organisms Vortex generation and manipulation Biological propulsion mechanisms Fluid-structure interactions in marine animals Comparative biomechanics Passive energy recapture in locomotion Collaborative Networks : Frequently collaborates with researchers such as Sean P. Colin, John H. Costello, Brad J. Gemmell, and Kakani Katija. Funded by the National Science Foundation (Grant #1510929). Technological Contributions : Co-developed the Self-Contained Underwater Velocimetry Apparatus (SCUVA) for in situ hydrodynamic measurements and biohybrid robotic jellyfish for propulsion studies.

Ian BartolView profile

Professor

• Marine Biomechanics
• Physiological Ecology
• Cephalopod Locomotion
• +3 more

Ian Bartol is a Professor in the Department of Biological Sciences at Old Dominion University , where he leads the Bartol Marine Biomechanics Lab . His research focuses on marine biomechanics and physiological ecology, particularly locomotion and sensory processes in cephalopods and sea turtles. Education Ph.D., Marine Science, Virginia Institute of Marine Science (1999) M.S., Marine Science, Virginia Institute of Marine Science (1995) B.S., Biology, University of Michigan (1992) Research Interests span hydrodynamic analysis of aquatic locomotion, sensory ecology in marine vertebrates, and bio-inspired engineering. Key projects include studying vortex ring formation in squid, hearing capabilities in loggerhead turtles, and stability mechanisms in boxfishes. Grants & Collaborations include Federal funding for cephalopod maneuverability (2016-2020), Private projects on sea turtle swimming (2014-2017), and State-funded studies on archived samples (2009-2011). His work integrates DPIV/DDPTV flow imaging with kinematic analysis. Scientific Awards 2005 Young Faculty Award, ODU Biological Sciences 2001 UCLA Chancellor's Postdoctoral Research Recognition 1998 Eastern Shore Seaside Graduate Scholarship 1991 Golden Key Honor Society 1989 University of Michigan Alumni Scholarship Students & Collaborators include Ph.D. candidate Alissa Ganley , M.S. student Jahnita (Cal State Fullerton), Mel Lhuillier , and undergraduates Erin Coulter and Katie Somers . Collaborators like Dr. Patricia Krueger and Dr. Joseph Thompson are integral to his work. Labs & Teams utilize advanced 2D/3D flow imaging in a water tunnel/viewing chamber, synchronized with high-speed cameras to analyze thrust production, turning mechanics, and predator-prey interactions. The lab recently highlighted Alissa Ganley 's defended dissertation (2021) and welcomed new members like Morgan (2024).

• Vortex Engineering
• Wave Diffraction
• Shock Wave Physics
• +3 more

Muhammed Burak Agir is a Researcher in Mechanical and Aerospace Engineering, specializing in computational fluid dynamics and rarefied gas dynamics. His work focuses on vortex engineering, shock wave interactions, and multiphase flow phenomena. He contributes to the Space Systems Research Group, addressing challenges in aerospace engineering such as planetary surface interactions and high-speed flow modeling. Research Interests: His primary focus includes vortex dynamics in low-pressure environments, shock wave diffraction, and the development of open-source computational tools for multiphase rarefied flows. His work bridges theoretical modeling with practical applications in space systems, particularly in understanding plume-surface interactions for lunar missions. Publications & Projects: Agir has contributed to peer-reviewed articles on topics like gas-surface interactions and rarefied flow simulations. He collaborates on projects involving low Earth orbit systems and space thrusters. His research utilizes advanced numerical methods and open-source software to model complex fluid dynamics scenarios. Award & Editorial Roles: While no specific awards are cited, he actively participates in peer review for journals like CEAS Space Journal and serves on the editorial board of Asrel Aerospace Research Letters.