Kyle Bradbury is a Lecturer and Managing Director of the Energy Data Analytics Lab at Duke University. His work merges machine learning, statistical signal processing, and remote sensing to solve critical energy system challenges, particularly focusing on integrating renewable energy (wind and solar) into power grids through advanced modeling of energy storage reliability and cost trade-offs. He teaches the course IDS 705: Principles of Machine Learning .
Prof. Dr. Sıtkı Çağdaş İnam is a faculty member at Başkent University's Department of Electrical and Electronics Engineering. With a PhD in Physics from Middle East Technical University (2004), his research spans high-energy astrophysics, X-ray astronomy, and neutron star dynamics. His work focuses on timing analysis, spectral modeling, and accretion processes in X-ray pulsars, magnetars, and binary systems. Recent studies include observations of transient X-ray sources using RXTE and Swift satellites, with notable discoveries of glitches and quasi-periodic oscillations. 2022: Spectral analysis of 2S 1417-624 during its outburst 2021: Deep learning applications in voice pathology detection 2020: Comprehensive study of MAXI J1409-619 2019: Magnetar pulse frequency variability He has led multiple projects on X-ray binaries and magnetic field effects in neutron stars, serving on the Turkish Astronomical Association's board. His collaborations extend to international teams analyzing high-energy cosmic phenomena.
Dr Qiang Zhang is a Senior Lecturer at the School of Mathematics, Computer Science and Engineering at City, University of London. His career spans leading academic and research roles at the University of Michigan - Shanghai Jiao Tong University Joint Institute, University of Oxford, and the University of Utah. He holds a PhD in Mechanical Engineering (2005) and an MSc in Thermal Engineering (1996, 1993) from Dalian University of Technology. Key Affiliations : City, University of London (Reader, 2020–present; Lecturer, 2014–2020); University of Michigan - SJTU Joint Institute (Associate Professor, 2011–2014); University of Oxford (Research Staff, 2006–2011); University of Utah (Research Assistant Professor, 2005–2006). Research Interests focus on high-speed gas turbine heat transfer, aerodynamics, and cooling systems. He pioneered dynamic thermal management techniques like unsteady conjugate cooling and Turbo Heat Exchanger (patented 2022), which are transforming coolant efficiency in aerospace and electronics. His work bridges experimental methods (e.g., transient thermal measurements, wind tunnel development) with computational fluid dynamics (CFD) validation. Publications & Impact include over 95 documents with 2,365 citations and an h-index of 25. His 15 most recent articles (2009–2025) reveal a trend toward intermittent impingement cooling , ribbed/grooved surface optimization , and shock wave control . These span disciplines like mechanical engineering, fluid dynamics, and thermal systems design. Awards & Recognition : ASME Fellow (2019) Rolls-Royce Award to Inventors (2013) ASME Turbo Expo Best Paper Awards (2016, 2017) ASME Journal of Heat Transfer Outstanding Reviewer (2012) Oxford University Award of Merit Review (2007) Professional Contributions include editorial roles (ASME Journal of Thermal Science and Engineering Applications, Aerospace Special Issues) and committee membership in the ASME K-14 Heat Transfer division since 2011. He leads an EPSRC project on unsteady cooling mechanisms and is commercializing a patented Turbo Heat Exchanger through a spin-off company.
Frédéric Ablitzer is a researcher at the Laboratory of Acoustics (LAUM) of Le Mans University. His work focuses on the physics of musical instruments and vibro-acoustics of structures, combining modeling and characterization approaches to address instrument-making challenges. Research Interests: Physics of musical instruments, vibro-acoustics of structures, composite materials, and opto-acoustics. Recent studies include analyzing bowed string instrument dynamics, developing vibration damping techniques for composite panels, and investigating violin bow physics through experimental and computational methods. His work also extends to plant biomechanics and innovative musical instrument design.
Øyvind Wiig Petersen is an Associate Professor at the Department of Structural Engineering, Norwegian University of Science and Technology (NTNU). His research focuses on bridge dynamics, wind and wave loading, inverse force identification, structural monitoring, and machine learning applications in structural mechanics. He works extensively with long-span suspension bridges and floating bridge systems. Current research areas include vortex-induced vibrations, Kalman filter applications, wind tunnel testing, and finite element model updating. He has published in leading journals like Journal of Wind Engineering, Mechanical Systems and Signal Processing, and Engineering Structures. His work integrates experimental data with computational models for structural condition assessment and load estimation.
Roland Schmehl is an Associate Professor at the Department of Aerospace Engineering, Delft University of Technology (TU Delft). He is a founding member of Airborne Wind Europe (since 2019) and serves on the advisory board of Kitepower (since 2016). His work focuses on airborne wind energy (AWE) systems, including their application in Martian habitats, noise analysis, and aero-structural modeling. Key Research Areas: Wind energy innovation, aerospace engineering, Martian habitat power systems, and robotics-assisted design. The 15 most recent articles highlight his contributions to AWE system design, flight pattern optimization, noise annoyance studies, and extraterrestrial energy applications. His scientific awards include the 2021 Innovation stamps and the 2021 Rhizome project prize for off-Earth habitat development. Schmehl’s projects include MERIDIONAL (multi-scale wind farm design), Rhizome (autonomous Mars habitats), and EFRO (unmanned systems research). He has led editorial activities for journals like Wind Energy Science and Energies and participated in international conferences.
Lorenzo Giovannini is an Associate Professor at the University of Trento, affiliated with the Department of Civil, Environmental and Mechanical Engineering. His expertise spans air pollution meteorology, atmospheric physics, climate change, renewable energy, and urban meteorology, with a focus on numerical weather modeling and pollutant dispersion studies. His research interests include: Atmospheric boundary layer dynamics and turbulence Numerical weather prediction and dispersion modeling Renewable energy resource assessment Climate change impacts on Alpine and urban environments Mountain meteorology and thermally-driven flows His recent publications highlight interdisciplinary approaches combining field measurements, numerical simulations, and data analysis across atmospheric physics, environmental engineering, and climate science. Key article trends involve: Advancing WRF-HAILCAST for severe weather simulations Quantifying snowfall and climate variability in Alpine regions Developing machine learning tools for environmental sensitivity analysis Studying turbulence in complex terrain and urban settings Investigating CO2/H2O fluxes in vineyard ecosystems Applying nature-based solutions to urban heat islands
Jean Carlos Perez is a Professor in the Department of Aerospace, Physics and Space Sciences at the Florida Institute of Technology (Florida Tech) , where he also serves as the Program Chair for Physics and Space Sciences . He is a leading expert in theoretical and computational plasma physics , with a focus on nonlinear dynamics and turbulence in plasma flows. His research spans magnetohydrodynamics (MHD) , solar wind turbulence , heliophysics , and plasma instabilities , with applications to both laboratory and astrophysical plasmas. He employs analytical and numerical modeling techniques to study complex plasma systems, emphasizing universal processes across different plasma environments. Professor Perez has published extensively on solar wind turbulence , including studies using Parker Solar Probe and Solar Orbiter data. His work has advanced understanding of magnetic field intermittency , Alfvénic turbulence , and plasma heating mechanisms in the inner heliosphere. While no specific awards are listed in the provided text, his prolific publication record and leadership role suggest significant recognition in his field. He is actively involved in mission concept development, such as the Firefly mission proposal aimed at holistic solar and heliospheric studies. He teaches and advises students in the Physics and Space Sciences program at Florida Tech and can be reached at jcperez@fit.edu .
Phillip Joseph holds the position of Professor of Engineering Acoustics within the Faculty of Engineering and Physical Sciences at the University of Southampton, where he operates from the Institute of Sound and Vibration Research (ISVR). Funded by the Rolls-Royce University Technology Centre in Gas Turbine Noise, his work bridges fundamental acoustic research with critical industrial applications in aerospace and civil infrastructure. Education Physics BSc, University of York (1984) Sound and Vibration MSc, ISVR, University of Southampton PhD in Active Control of Sound Fields, ISVR (awarded 1990) Research Focus Joseph's research centers on broadband fan noise reduction for aircraft engines, shallow water acoustics, and active noise control systems. His work on trailing edge serrations and spectral leading-edge designs for airfoils directly addresses aeroacoustic challenges in next-generation propulsion systems. A significant portion of his current efforts targets environmental sustainability through the UKWIR 'Zero Leakage 2050' initiative, where he leads fundamental research to revolutionize acoustic leak detection in water pipelines using wave dynamic stiffness modeling and advanced signal processing. His experimental investigations span diverse acoustic environments—from aircraft engine test rigs to buried plastic water mains and even Mars' atmosphere—demonstrating exceptional methodological versatility. The integration of computational modeling with physical experimentation characterizes his approach across all projects. Research Trends Analysis Analysis of Joseph's 2023-2025 publications reveals three dominant research trajectories: 1) Advanced noise control for aircraft propulsion systems (60% of output), featuring contra-rotating rotors and porous aerofoils; 2) Acoustic leak detection for water infrastructure (30%), with emphasis on plastic pipe networks; and 3) Fundamental acoustic propagation studies (10%), including extraterrestrial applications. His work consistently demonstrates industry-academia collaboration, with Rolls-Royce, Airbus, and UKWIR providing critical real-world validation contexts. Supervision and Funding Joseph actively supervises nine PhD candidates working on projects spanning aeroacoustics and infrastructure monitoring. His research portfolio includes £4.2M in active funding from EPSRC, Horizon Europe (WATER-LDL), and industry partners. Current projects include 'Surface treatments for next generation of quiet aerofoils' (EPSRC), 'Aerodynamics and aeroacoustics of closely coupled rotors' (EPSRC), and 'RAINDROP' for trunk main leak detection (EPSRC). Previously, he completed 11 major projects including QUIET AEROFOILS (EPSRC) and ENOVAL (EU FP7). Research Environment As a core member of ISVR's Acoustics Group, Joseph utilizes world-class facilities including anechoic chambers, reverberation rooms, and specialized instrumentation for acoustic measurements. His work within the Rolls-Royce UTC provides direct access to engine test facilities, while collaborations with UKWIR enable field testing across UK water networks. The group maintains strong ties with Southampton's Maritime Engineering department for shallow water acoustics research.
Dr. Axelle Viré is an Associate Professor in the Flow Physics and Technology department within the Faculty of Aerospace Engineering at Delft University of Technology. Her research focuses on advanced wind energy systems, particularly floating offshore wind and airborne wind energy technologies. Her research interests span multiple areas of renewable energy systems: Floating offshore wind energy systems Airborne wind energy conversion Fluid-structure interactions in wind turbine systems High-fidelity numerical modeling of complex flow phenomena Turbulence modeling for wind energy applications Dr. Viré's recent publications demonstrate a strong focus on wind turbine wake control, vortex dynamics, and aerodynamic optimization. Her work combines experimental approaches with advanced numerical modeling to address key challenges in wind energy technology. She has made significant contributions to understanding wake recovery processes, active wake control strategies, and the aerodynamic behavior of floating offshore wind turbines under dynamic conditions. Among her notable achievements is the Delft Education Fellowship awarded in 2023, recognizing her contributions to academic education. She has supervised multiple students and is actively involved in research projects advancing wind energy technology. Dr. Viré is currently leading the active research project 'Accelerating Dutch innovations in offshore renewables through data-driven hybrid labs' (2024-2031) and has previously contributed to significant projects including AWESCO (Airborne Wind Energy System Modelling, Control and Optimisation) and NUMIWING (Numerical modelling of inflatable airborne wind energy systems). She maintains an active public engagement profile, with multiple media appearances discussing wind energy innovations and has participated in events such as Aerospace Diversity Day, demonstrating commitment to both research excellence and inclusive academic practices.
Stephen Cottrell is Professor of Music at City, University of London, where he has held various leadership positions including Head of the conjoint Departments of Music and Culture & Creative Industries (2010-15) and Assistant Vice-President responsible for establishing the City Doctoral College (2019-22). Previously, he was Senior Lecturer and Head of the Department of Music at Goldsmiths College. His academic journey began with studies at the University of East Anglia, Guildhall School of Music and Drama, and Paris Conservatoire, followed by an M.Mus. in Ethnomusicology and PhD at Goldsmiths College, supported by a British Academy scholarship. His research spans ethnographic approaches to musicians and music-making within Western art music tradition, the study of musical instruments (particularly the saxophone), and musical performance analysis. Cottrell's scholarly output includes seven books, fourteen book chapters, twenty-nine conference papers, nineteen journal articles, twenty-nine performances, and thirteen other publications. His recent work includes the 2024 article 'Musical Instruments and Palimpsestic Identity' which explores the transtextual relationships between musical instruments through Gérard Genette's literary theory of palimpsests. Cottrell serves as a member of the AHRC Peer Review College and as an external assessor for the Hong Kong Research Grants Committee and the Irish Research Council. He has examined over 25 PhD theses and held external examiner appointments at multiple institutions. His research interests bridge ethnomusicology, organology, and performance studies, with a particular focus on the saxophone and Western art music traditions. Member of British Forum for Ethnomusicology executive committee (2005-2012) Member of Royal Anthropological Institute ethnomusicology committee Associate editor of Twentieth-Century Music (2008-13) Artistic advisor to Saxophone Classics record label As a supervisor, Cottrell has guided numerous PhD students through research on diverse topics including ethnographic studies of live classical music concerts, networked jazz performances, the history of the Hang/Handpan, and the Yehudi Menuhin School's legacy. His work demonstrates significant impact across academic, performance, and cultural sectors, with research that connects historical music practices with contemporary performance contexts.
Sreten Mastilovic is a Research Professor at the Department of Materials Science, Institute for Multidisciplinary Research, University of Belgrade. He holds a PhD in Technical Sciences from Arizona State University (1997) and has spent over 25 years in academic and research institutions. Education: PhD (1997), MSc (1994), and BSc (1989) from University of Belgrade and Arizona State University His research focuses on Mechanics of Materials , particularly damage and fracture mechanics, micromechanics, constitutive modeling, and dynamic material behavior. He also works on Finite Element Analysis for structural and penetration mechanics, and Wind/Solar Energy Analysis for renewable energy projects. His recent publications highlight size effects in fracture mechanics, scaling behaviors in fragmentation, and computational modeling of material failure. He has led projects like SEEWIND (European Commission FP6) and SYNENERGY (Hellenic Aid), and contributed to national grants including OI 174010 (2011–2019) and TR 14067 (2008–2011).
Zhong Li is an Associate Professor in the Department of Civil Engineering at McMaster University, specializing in water resources systems, environmental modeling, and machine learning applications. His research focuses on integrating advanced computational techniques with hydrological processes to address climate change impacts, infrastructure resilience, and water quality management. Key research areas include hydrological modeling under uncertainty, wastewater treatment optimization, and AI-driven environmental systems Develops hybrid models combining machine learning with physical/ontological frameworks for improved predictive accuracy Recipient of the 2025 University Scholar award at McMaster for mid-career research leadership Recent publications demonstrate expertise in global flood forecasting, membrane fouling prediction, SARS-CoV-2 wastewater surveillance, and climate change adaptation strategies. His work spans water treatment plants, Canadian river systems, and transboundary environmental challenges. Scientific Awards: University Scholar 2025 (McMaster University) Teaching responsibilities include courses in environmental engineering, water resources systems design, and specialized civil engineering studies. Collaborates extensively with interdisciplinary teams on infrastructure safety and sustainability projects.
Prof. Dr. Marco Günther is a faculty member in the Faculty of Engineering at Saarland University of Applied Sciences, specializing in Mathematics and Fluid Mechanics. His academic role includes teaching and research leadership in computational fluid dynamics and simulation. Research Focus: Mathematical modeling of flow processes, multiphase flows, and CFD applications Lectures: Mathematics for engineering, numerical simulation, technical fluid mechanics Projects: Numerical simulation of laser welding, flow behavior in wastewater treatment, and particle-laden flows External Affiliation: Scientific consultant for Fraunhofer-ITWM's Transport Processes division His research emphasizes industrial applications of fluid mechanics, with projects spanning from wind turbine optimization to urban water management. The Linux-based simulation tool 'gm.linux' was developed as a companion to his widely adopted textbook on mathematical modeling.
Dr. Matthew Lewis is an Honorary Senior Research Fellow at Bangor University's School of Ocean Sciences, specializing in physical oceanography with applications to blue economy industries and coastal flood risk. His research employs computer models to simulate marine processes, including wave-tide interactions, estuarine dynamics, and future changes to coastal hazards. With affiliations spanning multiple research projects and international collaborations, Dr. Lewis plays a significant role in advancing marine renewable energy and coastal resilience science. Dr. Lewis's research interests focus on numerical modeling of marine systems, with particular expertise in wave-tide interactions, estuarine flood risk, marine renewable energy resource assessment, and marine plastic pollution. His work combines physical and biological processes to better understand marine systems, with applications ranging from coastal flood risk mitigation to optimizing offshore renewable energy deployment. His research bridges the gap between fundamental oceanographic processes and practical applications for coastal communities and industries. His recent publications demonstrate a strong focus on tidal and wave energy resource assessment, coastal flooding mechanisms, and the environmental impacts of marine renewable energy. The research shows increasing emphasis on interdisciplinary approaches, combining physical oceanography with ecological and social considerations, particularly in addressing compound flooding events and marine plastic pollution. His work has evolved from fundamental process studies toward more applied research with direct policy and industry relevance. Dr. Lewis actively supervises PhD and MRes students, with current projects covering renewable energy resource assessment, microplastic dispersal, coastal flooding mitigation, and estuarine dynamics. He teaches the ocean modeling module at Bangor University and serves as an Associate Editor for Frontiers in Marine Science and Guest Editor for Elsevier's Renewable Energy journal. His research is supported by multiple grants from NERC, EPSRC, and other funding bodies. As a member of the EPSRC Associate Peer Review College and the Digital Environment Expert Network, Dr. Lewis contributes significantly to the research community beyond his own projects. He has collaborated with numerous research partners including the UK Met Office, Deltares, CSIRO Australia, and NIWA New Zealand, demonstrating strong international engagement in marine science.