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David Robert VerelstView profile

Researcher

• Hydro-servo-aero-elastic wind turbine time domain simulations
• stability computations
• loads and control
• +5 more

David Robert Verelst is a Senior Researcher at the Department of Wind and Energy Systems, Technical University of Denmark (DTU), specializing in hydro-servo-aero-elastic wind turbine simulations and stability computations with focus on loads and control. He serves as project manager for the development of the aeroelastic software HAWC2 and has extensive experience in research project management and scientific software tool development. Dr. Verelst holds a PhD from DTU Wind Energy (2010-2013) and previously completed his Aerospace Engineering studies at TU Delft (2001-2010). His academic journey includes positions as Research Assistant (2010), Postdoc (2013-2015), and currently Senior Researcher at DTU. His research interests center on hydro-servo-aero-elastic wind turbine time domain simulations, stability computations, wind tunnel experiments, control theory, and design optimization principles. As an experienced Python developer with basic Fortran knowledge, he bridges computational methods with wind energy applications. His work contributes significantly to UN Sustainable Development Goals related to affordable and clean energy. Verelst's publication record shows consistent output in wind energy research, with recent focus on beam-like structures for wind turbine blades, typhoon wind patterns, offshore wind farm optimization, and aeroelastic modeling. His research demonstrates strong interdisciplinary connections between computational mechanics, atmospheric science, and renewable energy systems. Among his notable achievements is the development and management of HAWC2, a critical aeroelastic software tool widely used in wind turbine design and analysis. His work on floating offshore wind farms and typhoon impacts represents cutting-edge research in challenging wind energy environments. As an active supervisor, Dr. Verelst mentors PhD students including Antunes, A. M. and Müller, S., contributing to the next generation of wind energy researchers. His involvement in multiple projects through 2027 demonstrates his ongoing commitment to advancing wind energy technology and education.

• Forest Engineering
• Timber Harvesting
• Forest Supply Systems
• +5 more

Christian Kanzian is an Associate Professor at the Institute for Forest Engineering within the Department of Ecosystem Management, Climate and Biodiversity at the University of Natural Resources and Life Sciences, Vienna (BOKU). He specializes in forest engineering, timber harvesting systems, and forest operations research, with particular expertise in cable logging technology, timber supply chain optimization, and digital applications in forest operations. His work bridges theoretical research with practical applications in sustainable forest management. Dr. Kanzian's research interests focus on forest engineering systems, including timber harvesting methodologies, analysis of forest supply systems, cable technology, simulation of timber harvesting systems, timber harvest logistics, and data analysis of forest systems. His work integrates operations research principles with practical forestry applications to optimize efficiency while maintaining environmental sustainability. He has developed expertise in digital planning tools for cable logging operations, soil impact assessment from forest machinery, and wood quality management throughout the supply chain. His recent publications reveal a strong emphasis on digital transformation in forest operations, including applications of GIS and laser scanning technology for forest road planning and monitoring. His research demonstrates how data-driven approaches can improve decision-making in timber supply chains, particularly regarding competition dynamics, strategic forecasting, and environmental performance assessment. He has also made significant contributions to understanding bark removal processes during harvesting and their impact on wood quality in alpine conditions. Formec 2018 Best Poster Award BOKU Teaching Award 3rd Place (2017) Stiftung 120 Jahre Universität für Bodenkultur (2017) Formec 2015 Best Paper Award Dr. Kanzian leads and participates in numerous research projects focused on optimizing wood supply chains, sustainable forest management, and digital applications in forest operations. His work often involves collaboration with industry partners and international research institutions, reflecting the applied nature of his research. He has been instrumental in developing simulation tools for forest operations and has contributed significantly to education through the Wood Supply Chain Competition, which provides students with hands-on experience in forest supply chain management.

• Robotics
• Control Systems
• Unmanned Aerial Vehicles (UAVs)
• +3 more

Davoud Alahvirdi is affiliated with the Faculty of Computer Science at the University of Namur and the Namur Institute for Complex Systems (NAXYS). His research focuses on robotics, control systems, and unmanned aerial vehicle (UAV) applications. His work includes simulation of swarm intelligence for traffic management and robust control of helicopters with cable-suspended payloads. Keywords from his research include Robotics, Control Systems, UAVs, Simulation, and Optimization. He has contributed to two peer-reviewed publications in 2023, addressing autonomous traffic monitoring with UAVs and iterative control methods for helicopters. His research aligns with United Nations SDGs related to sustainable transportation and technological innovation.

• Renewable Energy
• Materials Science
• Electrical Engineering
• +3 more

Aubrey Jackson is a researcher at the National Renewable Energy Laboratory (NREL) within the field of Materials Science, focusing on photovoltaic systems and renewable energy technologies. Their work primarily investigates material degradation and durability in solar energy applications. Key Research Themes: Photovoltaic material stability under extreme environmental conditions Accelerated stress testing methodologies for solar cables Failure analysis of polymer components in solar systems Recent publications emphasize humidity-induced corrosion, antireflective coating degradation, and cable jacket performance. Collaborations include experts like David Miller, Peter Hacke, and colleagues across energy research domains.

Wenjuan SongView profile

Researcher

• Superconductivity
• High-Temperature Superconducting Materials
• Resistive Superconducting Fault Current Limiters
• +7 more

Dr. Wenjuan Song is a researcher at the University of Ha'il, Ha'il, Saudi Arabia, actively contributing to the field of superconductivity and its applications in advanced electrical and aerospace systems. Her work integrates artificial intelligence with superconducting technologies for improved diagnostics, modeling, and system reliability. Her research interests include: High-Temperature Superconducting Materials Resistive Superconducting Fault Current Limiters AI-Driven Predictive Modeling Quench Diagnostics Cryo-Electric Aircraft Systems Energy Delivery Reliability The recent publications show a strong trend in applying machine learning techniques—such as deep neural networks, support vector machines, and principal component analysis—to model and enhance the performance of superconducting devices in fault conditions and energy systems, particularly in futuristic electric aircraft applications. Dr. Song collaborates with an international network of researchers from institutions such as the University of Cambridge, Polytechnic Institute of Porto, and Tanta University, indicating active global engagement in her research domain.

• Marine Acoustics
• Bioacoustics
• Underwater Sensing
• +7 more

Peter Sigray is a Researcher at the Royal Institute of Technology (KTH) in Stockholm, Sweden, affiliated with the Department of Aerospace/Motion Mechanics/MSY within the School of Engineering Sciences. He is based at Technology Ring 8 and teaches the course Underwater Technology (SD2709). His research spans marine electromagnetism, bioacoustics, and underwater robotics. He previously studied ocean currents using trans-Atlantic cables via motional induction and contributed to the global BIAS project on marine soundscapes. He has developed novel instruments such as the particle motion sensor and the SEMLA electromagnetic sled, the latter used in collaboration with the University of Rhode Island. His current work focuses on underwater communication for AUVs. He chairs the European Commission’s Technical Group of Underwater Noise (TG Noise), supporting marine policy under the Marine Strategy Framework Directive. In 2024, he will become Director of the Swedish Maritime Robotic Laboratory (SMaRC2.0), highlighting his leadership in marine robotics and environmental monitoring. His research interests include marine acoustics, bioacoustics, underwater sensing, electromagnetic field mapping, autonomous systems, and environmental instrumentation. Though no publications or students are listed, his technical innovations and policy roles underscore his impact in marine science and engineering. He has no listed scientific awards. There is no indication of part-time status, retirement, or former staff status. He leads and contributes to major initiatives in underwater noise assessment and maritime robotics, positioning him at the forefront of applied marine technology and environmental monitoring.

Chad CableView profile

Adjunct Associate Professor

• Game Design
• Game Programming
• Accessible Games
• +5 more

Chad Cable is an Adjunct Associate Professor in Entertainment Design, specializing in game design and programming. He currently teaches Game Development courses including Game Dev 1 (EGAM-102-01) and Game Dev 2 (EGAM-202A-01: Int Prototyping) at an institution with Entertainment Design department. His professional expertise spans game design, programming, accessible puzzle games, and character controller implementation. Cable has extensive industry experience working at major game studios including Disney Interactive and Schell Games, where he focused on accessible puzzle games. He currently serves as co-developer at Toyful Games, applying his academic knowledge to commercial game development. Cable's research and professional work centers on game mechanics analysis, particularly through his "Covers" methodology where he reimplements and analyzes existing game mechanics to understand their underlying principles. His work emphasizes animation principles, game feel, and the relationship between technical implementation and player experience. He has published analyses of games like BOXBOY! and Donkey Kong Country Returns, focusing on how animation principles like squash and stretch contribute to game feel. His recent publications demonstrate a consistent focus on character controllers, animation sequencing, and the technical implementation of game mechanics that create satisfying player experiences. Through his "Covers" approach, he breaks down complex game systems into understandable components that reveal the underlying design and programming decisions. Cable is an active practitioner who bridges academic theory and industry practice, using his professional game development work to inform his teaching and vice versa. His approach emphasizes hands-on learning through prototyping and technical implementation as pathways to deeper understanding of game design principles.

• Offshore Wind Technology
• Maritime Engineering
• Ocean Engineering
• +12 more

Dr. Faryal Khalid is a Lecturer in Offshore Wind Technology at the University of Exeter, affiliated with the Department of Engineering within the College of Engineering, Mathematics and Physical Sciences. She is also appointed as the Programme Lead for MEng Environmental Engineering, effective January 2025. Her work is deeply integrated with Exeter Marine and contributes to UN Sustainable Development Goals including Affordable and Clean Energy, Industry, Innovation and Infrastructure, Climate Action, and Life Below Water. Research Interests: Dr. Khalid specializes in offshore renewable energy systems, with a focus on the reliability, dynamics, and environmental integration of offshore wind and wave energy technologies. Her research spans: Subsea power cable dynamics under complex ocean conditions Floating offshore wind turbine mooring systems, including active load-reduction technologies like the IMS (Intelligent Mooring System) Risk and reliability assessment for offshore energy deployments Numerical modelling and mechanical characterisation of marine structures Environmental impact on offshore aquaculture and energy systems Her interdisciplinary approach combines engineering analysis with geospatial and environmental data to optimize system performance and sustainability. Although specific publications are not listed in the provided text, her research activities indicate a strong focus on experimental and numerical validation of offshore technologies, particularly in collaboration with industrial partners and international test sites like EMEC in Orkney, Scotland. Scientific Awards: No awards mentioned in the provided text. Advising and Grants: Dr. Khalid has led and contributed to multiple collaborative research and innovation projects funded through national and international programs. These include: CableDyn: Investigating dynamic loading and fatigue of subsea cables under 3D wave and current conditions. WEDUSEA: Grid-connected 1MW floating wave energy converter demonstration at EMEC. Bilateral UK & US Offshore Wind R&D Programme: Commercialization of active mooring components for floating wind. OffAqua: Assessing environmental impacts on structural risk for offshore aquaculture. Floating Wind Joint Industrial Project: Scaled prototype testing of the IMS for floating wind applications. Dynamic Load Reduction and Station Keeping Mooring System: Physical and numerical testing of IMS for load reduction. MaRINET2: European collaboration on offshore renewable energy research infrastructure. OPERA: Providing open-access operating data for wave energy development. These projects highlight her leadership in translating research into real-world applications through strong industry partnerships. Labs and Research Teams: Dr. Khalid is embedded in Exeter’s marine and renewable energy research ecosystem, contributing to Exeter Marine and collaborating with leading European research infrastructures. Her work benefits from access to experimental facilities and field data from test sites such as EMEC, supporting both numerical simulations and physical testing.

• Superconductivity
• Materials Science
• Applied Physics
• +3 more

Chao Zhou is a Researcher in the Energy Materials Systems group at the University of Twente, specializing in superconductivity and advanced materials for fusion energy applications. His work focuses on the electromagnetic and mechanical properties of superconducting conductors critical for next-generation fusion reactors. His research spans: High-temperature superconducting (HTS) cable development Performance analysis of Cable-in-Conduit Conductors (CICCs) Hysteresis and AC loss mechanisms in REBCO and MgB 2 systems Mechanical strain effects on critical current Fusion magnet design for tokamak devices Recent publications reveal a strong emphasis on engineering solutions for 20+ Tesla fusion magnets, with particular attention to cable patterns (CWS), contact resistance, and thermal management. His work bridges fundamental superconductivity physics with practical engineering requirements for projects like ITER and CFETR. Zhou actively collaborates with international fusion research teams, presenting findings at major conferences on magnet technology and superconducting materials. His presentation history includes invited talks on superconducting magnet design for magnetic density separation and current entrance length analysis in Nb 3 Sn strands.

• Materials Science
• Electrochemistry
• Battery Technology
• +4 more

Per Erik Vullum is an Associate Professor at the Norwegian University of Science and Technology (NTNU), based at Realfagbygget, D4-106, Gløshaugen campus (Høgskoleringen 5). His research spans materials science with emphasis on lithium-ion battery systems, electron microscopy characterization, and welding of dissimilar metals. Contact details: per.vullum@ntnu.no, +4773593486, +4793016522. Primary research interests include: Battery materials (silicon anodes, layered oxide cathodes, solid electrolytes) Intermetallic phase formation in aluminum-copper/steel welds Advanced microscopy techniques (TEM, STEM, in situ characterization) Industrial catalysis for energy and chemical processes Additive manufacturing of high-strength alloys Analysis of his 15 most recent publications reveals dominant focus on battery technology (8 articles, 53%), particularly silicon anode degradation and cathode cracking mechanisms. Secondary themes include dissimilar metal joining (4 articles, 27%) and electron microscopy (2 articles, 13%), with one catalysis study. Collaborative work with SINTEF and industry partners is evident through co-authors on welding and subsea cable projects. Scientific awards: No awards mentioned in the source text Advising and grants: The provided text does not reference any PhD/Master's students, grants, or funding sources. His collaborative publications suggest team-based research but omit specific grant details. Labs and teams: Vullum operates within NTNU's materials research ecosystem, likely connected to electron microscopy facilities given his TEM-focused publications. His SINTEF blog contribution indicates active collaboration with Norway's applied research sector, particularly in subsea cable and battery projects.

Dirk FröhlingView profile

Professor

• Technical Mechanics
• Mathematical Education
• Finite Element Method
• +4 more

Prof. Dr.-Ing. Dirk Fröhling serves as Director of the Institute of Mechanical Engineering at Westfälische Hochschule Gelsenkirchen. He specializes in technical mechanics, mathematics education, and IT integration for industrial applications. Affiliation: College of Engineering, Department of Mechanical Engineering, Environment and Building Technology Research Focus: Service-oriented software architecture, GIS-SAP integration, finite element method His publications demonstrate expertise in: Engineering mechanics pedagogy (1996-2016) Enterprise system integration (2002-2005) Multilingual educational resources Mobile maintenance portal development He has developed specialized software tools including PDFCropService , ODE Module , and Hosts PrefPane for macOS environments.

Krzysztof WildeView profile

Professor

• Bridge Engineering
• Structural Mechanics
• Diagnostics of Engineering Structures
• +3 more

Professor Krzysztof Wilde (b. 1966) is a leading academic at Gdańsk University of Technology, currently serving as its Rector since 2019. He previously held roles as Dean of the Faculty of Civil and Environmental Engineering (2004–2008, 2016–2019) and Head of the Department of Strength of Materials (2015–2019). He obtained his PhD from the University of Tokyo (1995) and habilitation from Gdańsk University of Technology (2003). His research focuses on bridge engineering , structural mechanics , and vibration reduction systems for infrastructure. He has developed advanced diagnostic tools for engineering structures and pioneered seismic/wind-resistant bridge technologies. His work integrates non-destructive testing , finite element modeling , and technical monitoring systems to enhance structural safety. Scientific achievements include: Individual Pomeranian Quality Award (2020) ‘De nihilo nihil fit’ prize (2018) Medal of the National Education Committee (2009) Bronze Medal for Long Service (2008) Prime Minister’s Award for habilitation (2004) As a supervisor, Wilde has guided multiple PhD candidates including Aleksandra Mariak, Anna Banaś, and Magdalena Rucka. He has managed 8 major research projects, such as Composite Pedestrian Bridges for Seismic Zones and Multi-Level Damage Detection in Infrastructure , with funding from Polish and Japanese governments.

Martin GräfeView profile

Professor

• Building Automation
• IP-based Communication Systems
• Embedded Systems
• +3 more

Martin Gräfe is a Professor of Programmable Systems and Dean of Studies for Programmable Systems and Circuit Technology at the Technical University of Mittelhessen (THM) in Friedberg, Germany. Based in office A2.2.05, he teaches foundational engineering courses including Introduction to Programming, Digital Technology, and Embedded Systems, with office hours held Mondays 2:00-3:00 p.m. during summer semesters. Education: 1988-1993: Electrical Engineering at University of Dortmund (now TU Dortmund) 1993-1998: Doctorate in integrated infrared transmission systems at University of Dortmund Research Focus: Prof. Gräfe pioneers IP-based building automation to replace legacy systems (KNX/LON) with Ethernet/IP over two-wire lines using SHDSL technology. His work achieves 15 Mbit/s data rates over kilometers-long cables while enabling power transmission and interference-resistant communication. He concurrently develops educational tools like StruktoSim for algorithm testing and Simple Draw for C programming visualization. Professional Contributions: Since joining THM in 2012, he has integrated industry experience from Busch-Jaeger Elektro GmbH (1998-2002) and Ritto GmbH (2002-2012) into curriculum development. His tools were presented at the 2014 Engineering Education Regional Conference, demonstrating commitment to engineering pedagogy through practical software solutions.

Cristinel MaresView profile

Professor

• Structural Dynamics
• Vibration Analysis
• Damage Detection
• +5 more

Dr. Cristinel Mares is a Reader and Director of Teaching and Learning at Brunel University London, affiliated with the Department of Mechanical and Aerospace Engineering within the College of Engineering, Design and Physical Sciences . He has maintained a consistent research trajectory in structural dynamics, vibration analysis, and damage detection methodologies since the late 1990s. Role: Reader (equivalent to Professor rank), Director of Teaching and Learning Contact: cristinel.mares@brunel.ac.uk | Howell Building, Room 111 Research Interests span structural health monitoring (SHM) through acoustic emission and guided wave propagation , wavelet-based finite element analysis for dynamic systems, squeeze-film levitation mechanisms, and Bayesian estimation for crack monitoring. His work bridges theoretical modeling with industrial applications in aerospace, wind energy, and marine engineering. Scientific Contributions include over 104 publications in journals like Mechanical Systems and Signal Processing , Advances in Mechanical Engineering , and Sensors . Recent articles focus on passive compliance design for robotics , Poisson contraction in levitation systems , and fatigue crack diagnostics using high-frequency parametric analysis . Collaborative efforts include co-authoring with T-H Gan, M. Wang, and T. Stolarski. Lab & Team Involvement includes membership in Brunel's structural dynamics research group, working on multi-scale finite element models , acoustic emission monitoring , and vibration-based damage detection . His team applies these techniques to complex systems ranging from helicopter stub wings to fast-moving train beam-soil interactions .

Marvin MarceloView profile

Associate Professor

• Broadcast Production
• Media Production
• Cinema Production
• +3 more

Marvin Marcelo serves as an Associate Professor at Washington State University's Edward R. Murrow College of Communication, teaching Advanced Television Production and advising the student-run television station Cable 8 Productions since 2006. He concurrently holds the position of general manager for Northwest Public Radio and Television, overseeing a state-wide radio network, two television market program services, and the student-run jazz station KJEM. He earned his degree from San Jose State University and maintains professional credentials as a certified broadcast network technologist and member of the Society of Broadcast Engineers (SBE). His research concentrates on cinematic production techniques for both large and small screens, with expanding focus on sports media production and e-sports development. Marcelo actively seeks to integrate students into emerging e-sports production fields, leveraging the college's technical infrastructure to establish industry footholds in this rapidly growing sector. Scientific Awards: None documented in available sources. As primary adviser for Cable 8 Productions, Marcelo has mentored numerous students who progressed to prominent roles in television and digital media production. His administrative leadership extends across broadcast operations, student media management, and strategic development of streaming distribution platforms for diverse audience engagement.