Dr James Campbell is a Reader in Structural Integrity at Brunel University London's Department of Mechanical and Aerospace Engineering within the College of Engineering, Design and Physical Sciences. With a PhD in hypervelocity impact on spacecraft and 20+ years of experience leading multidisciplinary projects, he specializes in non-linear numerical methods (FE and SPH), structural integrity, and impact analysis across aerospace, defense, and automotive sectors. BEng in Aeronautical Engineering, Imperial College London MSc and PhD in Astronautics and Space Engineering, Cranfield University His research focuses on: Transient response of materials/structures (e.g., space debris impact, aircraft crashworthiness) Meshless methods like Smoothed Particle Hydrodynamics (SPH) Constitutive models for isotropic/orthotropic materials Fluid-structure interaction in ditching and extreme wave events Recent work trends include space debris removal tools, composite material development for offshore energy, and advanced SPH algorithms for impact simulations. Awards include the Derek George Astridge Safety in Aerospace Award (2009) and Royal Institute of Naval Architects Medal (2010). He supervises PhD/MSc students and delivers CPD courses for industry (Boeing, Leonardo). Research group: IMM (International Marine and Offshore). Collaborations include Airbus, DLR, and ESA.
Christopher Vogel is a Research Fellow at New College and a Senior Research Associate in the Department of Engineering Science at the University of Oxford. He holds a first-class BE(Hons) in Engineering Science from the University of Auckland and completed his DPhil at Oxford under the Oxford Martin School’s Programme on Globalising Tidal Power Generation. His work focuses on advancing renewable energy technologies, particularly in tidal and wind energy systems. His research interests include fluid dynamics of tidal turbines, aerodynamic performance optimization, blade design under erosion, and large-scale renewable energy array modeling. He has contributed to projects like the Tidal Energy Research Group and the FastBlade facility for full-scale tidal blade testing. Vogel’s work integrates computational fluid dynamics (CFD), experimental testing, and multi-scale analytical models to address challenges in energy extraction efficiency, structural durability, and system reliability. Recent publications highlight advancements in actuator line methods for turbine wake prediction, uncertainty quantification in blade-element momentum theory, and dynamic loading analysis of tidal arrays. His studies often bridge theory and application, emphasizing practical solutions for marine and wind energy deployments. Collaborations include the Tidal Benchmarking Project and investigations into hybrid systems combining wave energy converters with breakwaters. Vogel’s interdisciplinary approach addresses both technical and environmental dimensions of sustainable energy systems.
Jun Chen serves as Professor and Associate Head for Facilities and Operations at Purdue University's School of Mechanical Engineering. His career spans experimental fluid dynamics research, academic leadership, and global engineering initiatives focused on sustainable energy solutions for underserved communities. Education: PhD in Mechanical Engineering, Johns Hopkins University (2005) MS in Aerospace Engineering, Beijing University of Aeronautics & Astronautics (1997) BS in Aerospace Engineering, Beijing University of Aeronautics & Astronautics (1994) Professor Chen's research centers on experimental fluid dynamics with emphasis on flow diagnostic techniques including digital holography, tomographic PIV, and interferometry. His work spans fundamental turbulence studies in stratified environments and applied energy systems for wind, hydrokinetic, and cardiovascular applications. Key innovation areas include multiphase flow measurement, low-Mach-number aeroacoustics, and wind energy conversion systems. His 15 most recent publications reveal consistent focus on advanced optical diagnostics for complex flows, with growing emphasis on renewable energy applications (wind/hydrokinetic systems) and biomedical fluid dynamics . The research demonstrates methodological evolution from fundamental turbulence characterization toward practical implementations in energy and healthcare. Scientific Awards: 2018 ASCE Sustainable Development Award for African grain storage system 2016 EPA P3 YCOSST Award for off-grid wind energy in Africa 2014 ASME Robert T. Knapp Award for holography uncertainty quantification 2005 Measurement Science Outstanding Paper Award for PIV peak-locking elimination Professor Chen actively mentors graduate students (16 theses supervised) and leads global engineering initiatives through Purdue's GEPP program, having conducted multiple field deployments in Cameroon for rural energy solutions. His research portfolio includes significant grants from NSF, DOE, and industry partners focused on fluid diagnostics and sustainable energy. His laboratory work integrates optical diagnostics with field-deployable energy systems , maintaining strong industry partnerships while advancing fundamental fluid mechanics knowledge. Current projects emphasize scalable solutions for resource-constrained environments through the Purdue Global Design Teams.
Federico Zilic de Arcos is a Departmental Lecturer in Civil Engineering Fluid Mechanics at the University of Oxford, associated with St Edmund Hall. His expertise lies in tidal energy systems, fluid-structure interactions, and computational fluid dynamics (CFD). He holds a PhD from Oxford's Tidal Energy group, where his thesis focused on tidal turbine hydrodynamics. After a postdoc in Oxford, he was awarded an H2020 Marie Skłodowska-Curie fellowship (co-funded by the Region of Normandy) to study dynamic loads on tidal rotors at the Laboratoire Ondes et Milieux Complexes in France. His research spans tidal energy extraction, floating energy systems, and the hydrodynamics of axial-flow rotors. Key contributions include CFD modeling of tidal turbines, blade deformation control, and array performance optimization. His work bridges experimental and numerical methods, addressing challenges in renewable energy systems. Education: Bachelor's in Naval Engineering, Austral University of Chile (2015) DPhil in Civil Engineering, University of Oxford (2017–2021) Awards: Marie Skłodowska-Curie fellowship (2020–2023) Labs/Teams: Oxford Tidal Energy Group, Laboratoire Ondes et Milieux Complexes (France)
Mac Gaunaa is a Senior Scientist at the Department of Wind and Energy Systems at the Technical University of Denmark (DTU). His work focuses on wind turbine aerodynamics, computational fluid dynamics, and renewable energy systems. He has contributed to advancements in actuator disk modeling, wind rotor performance, and airborne wind energy technologies. Research Interests: Wind Turbine Engineering, Rotors, Airfoil Design, Vortex Dynamics, Computational Fluid Dynamics, and Airborne Wind Energy Systems. Projects: Supervised PhD projects on aerodynamic performance in complex terrain, developed next-generation aerodynamic models, and contributed to Martian habitat wind energy research. Publications: Authored 181 publications, including peer-reviewed journal articles and conference proceedings, with recent work on streamwise flow acceleration, rooftop wind energy, and lifting line corrections. Supervision: Served as supervisor for PhD students like Zengler, C. P. and Li, A., and participated in numerous collaborative projects. Media: Engaged in public outreach through media contributions on topics like ferry wind resistance reduction and wind turbine design principles.
Ryan Paul is an Assistant Professor in the Department of Mechanical and Aerospace Engineering at Oklahoma State University (OSU). He holds an ORCID identifier (0000-0002-5883-8784) and specializes in flight dynamics, unmanned aircraft systems, aerodynamics, and pilot workload analysis. Prior to academia, he worked as a Flight Dynamics Engineer at the Naval Air Warfare Center Aircraft Division (2015–2020) and served as a Summer Faculty Fellow at Naval Air Systems Command (2022). Education: Ph.D. (Aerospace Engineering, NC State, 2015), M.S. (Aerospace Engineering, NC State, 2012), B.S. (Aerospace & Mechanical Engineering, OSU, 2010). He is a certified Flight Instructor and holds FAA licenses for commercial piloting and remote operation. Research focuses on flight dynamics simulations, unmanned systems design, aircraft certification, and spatial disorientation assessment. Key projects include work on urban wind impacts on drones, structural optimization for HALE aircraft, and advanced air mobility safety. Over 30 publications span topics like CFD-based aerodynamic modeling, propeller dynamometry, and flight control systems. Awards: Edward H. Heinemann Award (2019), Barry Goldwater Scholarship (2009), NSF Graduate Fellowship (2010). Teaching: Courses include Fundamentals of Aerodynamics, Aerospace Engineering Lab, and UAS Design/Analysis. Grants: Recent funding includes projects on spatial disorientation tools, drone payload capture systems, and autonomy for dynamic missions. Professional memberships include the Atmospheric Flight Mechanics committee and the Vertical Flight Society. His lab collaborates on projects like the Bellwether flying wing and Formula SAE aerodynamics optimization.
Dr. Michael Togneri is a Lecturer in Mechanical Engineering at Swansea University's Faculty of Science and Engineering, based in the Energy Security Research Institute on the Bay Campus. His research focuses on tidal stream energy, particularly improving turbine design and understanding turbulence effects to enhance energy production and reduce maintenance needs. Collaborations include institutions like the University of Normandy and Nagasaki University, alongside industrial partners for real-world data collection. Research aligns with UN Sustainable Development Goals 7 (Clean Energy) and 9 (Industry & Innovation). Current projects include offshore energy supply chains and autonomous drone boat turbulence measurement. Available for postgraduate supervision in tidal energy systems. Key achievements include developing numerical models for tidal turbines and analyzing tidal resource viability in global sites like the Goto Islands, Japan.
Helge Aa Madsen is a Professor at the Department of Wind and Energy Systems , Technical University of Denmark . His work focuses on wind turbine aerodynamics, active flap systems, and renewable energy optimization. Research Areas: Rotor Aerodynamics, Blade Element Momentum Theory, Computational Fluid Dynamics (CFD), Active Load Control, Wake Modeling Projects: IEA Wind TCP Task 47 TURBINIA Phase II (2025-2029), Hydrogen Wind Turbine Project (2022), LowWind System Integration (2019-2021) Recent Publications emphasize rotor aerodynamic modeling for non-uniform inflow, actuator disc theory applications, electricity price integration in turbine design, and active flap system validation on 4.3 MW turbines. His research spans Wind Turbine Engineering , Renewable Energy Systems , and Aeroelastic Dynamics . Scientific Contributions : 2011: Poster Prize for quasi-3D wake computation Student Supervision : PhD Student: Gamberini, A. (2020-2023) PhD Student: Li, A. (2019-2022)
Christian Grinderslev is an Assistant Professor at the Technical University of Denmark (DTU) within the Department of Wind and Energy Systems, specializing in aero- and fluid dynamics. His research focuses on rotor aerodynamics, fluid-structure interaction, and computational fluid dynamics (CFD) applied to wind turbine systems. He completed his PhD in 2021 under the project Fluid Structure Interaction for Wind Turbines in Atmospheric Flow , supervised by Niels N. Sørensen and others. Key research areas include vortex-induced vibrations (VIV) in wind turbine blades and rotors, aerodynamic modeling under non-uniform inflow conditions, and high-fidelity simulations of complex atmospheric flows. His work emphasizes validating computational models using field data and experimental validation. Grinderslev has contributed to international collaborations like IEA Wind TCP Task 29, advancing rotor aerodynamics and aeroelastic code comparisons. He is a core participant in the DigiWind project (2024–2027), aiming to develop digital solutions for wind energy systems. His publications span peer-reviewed journals and conferences, with a focus on advancing turbine design and performance under real-world flow conditions. Notable contributions include studies on VIV dynamics, CFD validation for MW-scale turbines, and fluid-structure interaction in complex flows. His research bridges theoretical models with practical applications, addressing challenges in turbine reliability and efficiency.
Ang Li is a Researcher at the Department of Wind and Energy Systems , Technical University of Denmark (DTU) , specializing in wind turbine aerodynamic modeling. His work primarily focuses on Blade Element Momentum (BEM) theory , Lifting Line methods , and Vortex aerodynamics for rotor design optimization. Research interests include Aerodynamic modeling of wind turbine rotors Non-planar blade design Multi-fidelity aeroelastic simulations Viscous force analysis in BEM Curved tip shape optimization Recent publications highlight advancements in computationally efficient models for 22-megawatt turbines and corrections to BEM methods for spanwise flow effects. Collaborations include institutions like IOP Publishing and researchers such as Gaunaa, Pirrung, and Zahle.
Professor Richard Willden is a Professor of Offshore Renewable Energy and Deputy Head of the Department of Engineering Science at the University of Oxford. He holds a MEng and PhD from Imperial College London, with postdoctoral experience at Cambridge University. His research focuses on fluid mechanics, tidal and wind energy systems, computational fluid dynamics (CFD), and turbine design optimization. He has pioneered work on tidal stream energy conversion, actuator line methods for turbine modeling, and multi-rotor array configurations to enhance energy extraction efficiency. Education: BEng (Aeronautics, Imperial College London, 1998); PhD (Imperial College London, 2002) His research interests include optimizing turbine performance under complex flow conditions, mitigating wake effects in arrays, and advancing numerical methods for renewable energy systems. Notable contributions include studies on tidal turbine array dynamics, floating platform-hydrodynamic interactions, and high-fidelity CFD modeling of turbine wake behavior. His work has addressed challenges in tidal energy extraction efficiency, blade deformation effects, and the impact of environmental factors like currents and waves on turbine performance. He has also contributed to international benchmarking initiatives for tidal turbine testing and validation.
Yanlin Shao is an Associate Professor in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), where he also serves as the study lead for the Nordic Master in Maritime Engineering programme. His research lies at the intersection of marine hydrodynamics, coastal engineering, and renewable energy systems, focusing on the interaction between ocean waves and marine structures including ships, offshore platforms, floating wind and wave energy converters, and marine aquaculture systems. PhD in Marine Hydrodynamics, Norwegian University of Science and Technology (2010) MSc, Shanghai Jiao Tong University (2006) BSc, Tianjin University (1999–2003) His research expertise includes wave-structure interaction, sloshing dynamics, mooring systems, boundary element methods, and computational fluid dynamics (CFD). He investigates both linear and nonlinear hydrodynamic phenomena, particularly in time-domain simulations of floating structures with large motions. His work supports the development of sustainable offshore technologies aligned with UN Sustainable Development Goals. The most recent publications reflect a strong trend toward renewable energy and sustainable aquaculture, with a focus on CFD modeling, experimental validation, and multi-body hydrodynamic interactions. Key themes include floating wave energy converters, gap resonance in side-by-side barges, hydrodynamics of flexible seaweed mimics, and LNG bunkering operations. His research combines theoretical modeling, numerical simulation, and experimental validation to advance offshore engineering solutions. Scientific Awards: Associate Editor Award, ASME Journal of Offshore Mechanics and Arctic Engineering (2024) Research Featured in "Advances In Engineering" (2021) Yanlin Shao has successfully secured research funding from the Independent Research Fund Denmark, Research Council of Norway, COWI Fonden, and DNVGL Technology Leadership. He actively supervises multiple PhD students working on projects related to floating energy systems, ship whipping, LNG bunkering, and marine aquaculture. He serves as an associate editor for the ASME Journal of Offshore Mechanics and Arctic Engineering and has previously contributed to the editorial boards of Water and Journal of Marine Science and Engineering . He leads and contributes to several key research projects including ESOMOOR (Enhancing Shared Mooring systems for floating Offshore wind farms), hydrodynamic modeling of floating seaweed farms, and CFD studies of wave energy converters. His lab collaborates closely with institutions such as NTNU, Harbin Engineering University, and KU Leuven, fostering a strong international research network in maritime and offshore engineering.
Prof. Dr. Tahir Yavuz is a faculty member at the Mechanical Engineering Program of Başkent University (Ankara, Turkey). His primary research focuses on fluid mechanics, energy systems, and thermodynamics, with applications to renewable energy technologies like wind and hydroelectric turbines. Education: PhD in Mechanical Engineering (2023), Başkent University. Research Interests: He specializes in computational and experimental studies of heat transfer, vortex dynamics, and aerodynamic optimization. His work spans wind turbine concentrators, helicopter blade design, Francis turbines, and hybrid energy systems. Publications & Contributions: With 2 journal articles and 159 conference papers (as per 2023 data), his recent works include numerical/experimental analyses of synthetic jet applications, helicopter blade optimization, and wind tunnel seeding systems. He has also served as an editorial board member for 6 journal roles. Teaching: He has taught 22 courses, including Fluid Mechanics I & II , Convective Heat Transfer , and Wind Energy .
Niels Nørmark Sørensen serves as Professor in the Department of Wind and Energy Systems at Technical University of Denmark (DTU), specializing in computational fluid dynamics for wind energy applications. His research focuses on developing high-fidelity aerodynamic models for wind turbines and complex terrain flows. His scientific expertise spans: Development of EllipSys2D/3D Navier-Stokes solvers Turbulence and transition modeling Hyperbolic mesh generation Moving grid algorithms High-performance computing implementations His work directly contributes to UN Sustainable Development Goals in renewable energy. Recent publications demonstrate strong focus on rotor aerodynamics, digital twin technology, and shape optimization. Key trends include advanced RANS solvers for airfoil design, correction models for BEM methods, and high-fidelity modeling of leading-edge erosion effects. The research consistently bridges theoretical CFD with practical wind turbine engineering challenges. He actively supervises multiple PhD projects and participates in major collaborative initiatives including IEA Wind TCP Task 47 (TURBINIA Phase II). Current projects address: Wind turbine tower vortex-induced vibrations 3D shape optimization of rotors Aeroacoustic modeling with serrated airfoils Leading edge repair performance analysis
Georg Raimund Pirrung is a Senior Researcher at the Department of Wind and Energy Systems, Technical University of Denmark (DTU), specializing in wind turbine design and aerodynamic modeling. He contributes to international projects such as Mexnext-II, INNWIND.EU, and AVATAR. Education: PhD in Wind Turbine Aerodynamics, DTU Wind Energy (2011–2014) MSc in Aerospace Engineering, University of Stuttgart (2005–2011) His research focuses on aerodynamics modeling , computational fluid dynamics , and structural dynamics for wind turbines. Key areas include aeroelastic stability, vortex-induced vibrations, and blade element momentum methods under non-uniform inflow conditions. Recent publications and projects highlight advancements in rotor aerodynamic modeling , static wind farm simulation with floater dynamics, and CFD integration for offshore wind turbines. He has co-authored 54 publications and led studies on neural networks for wind turbine design. Supervision: PhD student Li, A. on aerodynamic model development His work aligns with UN Sustainable Development Goals, particularly in renewable energy systems, and involves collaborations across Europe and Asia.
