Kamil Futyma is a researcher and lecturer at the Institute of Heat Engineering (IHE) at Warsaw University of Technology, specializing in mathematical modeling of thermal machines and energy systems. He holds an academic position as Assistant Professor and is actively engaged in both teaching and research activities. His research focuses on advanced energy systems including mathematical modeling of thermal machines and power plants, CO 2 separation technologies using molten carbonate fuel cells, optimization of district heating systems, and waste heat utilization. His work demonstrates a strong emphasis on improving energy efficiency in industrial and power generation applications through innovative engineering solutions. Dr. Futyma's publication record shows consistent contributions to the field of energy engineering, particularly in the areas of flue gas heat recovery, molten carbonate fuel cell applications for carbon capture, and optimization of thermal systems. His research often addresses practical challenges in power plant operations and district heating networks. He teaches courses on Theory of Thermal Machines and Contemporary Energy Systems, providing students with knowledge of fundamental and advanced energy conversion technologies. His professional activities include supporting industrial partners through mathematical modeling, energy efficiency audits, and training on engineering software such as Ebsilon Professional, GateCycle, and Aspen Hysys.
Professor Richard Morgan is an academic at the University of Queensland's School of Mechanical and Mining Engineering, where he served as Director of the Centre for Hypersonics from 1997 to 2021. His research specializes in hypervelocity aerothermodynamics, scramjet propulsion, and advanced hypersonic testing facilities. He lectures in mechanical and aerospace engineering and maintains an extensive international research program. His research focuses on: Development of hypervelocity impulsive facilities (including the 'X' series expansion tubes) Hypersonic aero-thermo-dynamics and radiation physics Scramjet propulsion systems for high-speed flight Planetary entry phenomena including ablation and radiation coupling Superorbital ground testing methodologies Analysis of recent publications reveals a dominant focus on experimental hypersonics, particularly in expansion tube facility development, radiation measurement techniques, planetary entry simulations, and aerodynamic heating. His work consistently addresses challenges in recreating extreme flight conditions for spacecraft and missile technologies. Awards and honors include: NASA Ames Honour Award (2010) for contributions to Hayabusa asteroid sample return mission observations UQ Excellence in Research Higher Degree Supervision Award (2012) He leads significant research collaborations with DSTG, NASA, ESA, Oxford University, and Ecole Centrale Paris, supported by continuous ARC funding since 1990 including current Discovery grants. His laboratory develops cutting-edge facilities like the X3 expansion tube and T6 Stalker Tunnel for hypersonic testing.
Professor Vincent Wheatley is a Professor at the School of Mechanical and Mining Engineering, University of Queensland , and Co-Director of the Centre for Hypersonics . His research focuses on supersonic plasma flows , hypersonics , and computational fluid dynamics , with applications in inertial confinement fusion and scramjet engines for space propulsion. Education: PhD in Aeronautics (2005), California Institute of Technology MEngSc (Mechanical), University of Queensland BE (Mechanical and Space), University of Queensland His recent work (2025–2021) explores scramjet combustion dynamics (e.g., hydrogen/ethylene fuel injection), plasma instabilities in multi-fluid models, and hypersonic noise and shock wave interactions . These studies employ direct numerical simulation (DNS) , large eddy simulation (LES) , and reacting flow modeling . Scientific Awards: Australia's Research Field Leader in Aerospace and Aviation Engineering (2018) 2017 Australian Award for University Teaching – Award for Teaching Excellence Professor Wheatley supervises projects on plasma fuel engines and hypersonic propulsion , supported by grants from the Australian Research Council (ARC) and Commonwealth Defence Science and Technology Group . His team collaborates on multi-fluid plasma simulation and scramjet optimization .
Luciano Castillo is a Professor at the School of Mechanical Engineering within the College of Engineering at Purdue University . His research spans turbulent boundary layers, wind energy, renewable energy integration, and bio-inspired engineering, with a focus on societal impacts such as energy-water nexus and social equality. Turbulent Flow Modeling with emphasis on initial conditions and micro-surfaces Wind Energy optimization and boundary layer interactions Renewable Energy Integration with water and thermal storage Biomedical Engineering applications in respiratory flow studies His recent publications explore robotics for classroom safety, mangrove-inspired erosion prevention, and renewable-powered desalination. Awards include the Alumni Distinguished Career Award (2023), ASME Fellow (2013), and multiple best paper awards. He leads initiatives like the US-Mexico Energy Corridor and contributes to interdisciplinary labs focusing on energy and societal challenges.
Anna C. Balazs is the John A. Swanson Chair of Engineering and Distinguished Professor of Chemical Engineering at the University of Pittsburgh Swanson School of Engineering, with an adjunct appointment in the Department of Chemistry. She has held visiting professorships at the Scripps Research Institute, University of Texas at Austin, and Oxford University. Dr. Balazs serves on the Advisory Board of the Materials Council for Materials Sciences and Engineering Division of the Department of Energy, Basic Energy Sciences, and is a member of the Editorial Advisory Boards of Langmuir, Soft Matter, and Polymer Reviews. Education: A.B. in Physics from Bryn Mawr College (1975) Ph.D. in Materials Science from MIT (1981) Postdoctoral research at Brandeis University, MIT, and University of Massachusetts Dr. Balazs specializes in the statistical, mechanical, and computer modeling of complex chemical systems, with particular expertise in polymer blends and the behavior of polymers at surfaces and interfaces. Her research focuses on developing theoretical frameworks for understanding responsive materials, particularly self-oscillating polymer gels, active matter systems, and nanocomposites. She investigates how chemical reactions can drive mechanical motion and pattern formation in soft materials, creating biomimetic systems with lifelike functionality. Her work bridges fundamental theoretical modeling with practical applications in microfluidics, drug delivery, and smart materials design. Analysis of Dr. Balazs' recent publications reveals a strong focus on the integration of chemistry, fluid dynamics, and mechanics to create responsive materials systems. Her research demonstrates how chemical reactions can drive complex mechanical behaviors in polymer gels and microstructures, enabling the spontaneous formation of 3D patterns, self-propulsion, and lifelike functionality. The work spans from fundamental theoretical modeling to practical applications in microfluidics and soft robotics, with a particular emphasis on enzyme-powered systems, chemically responsive materials, and the autonomous assembly of hierarchical structures. Dr. Balazs has made significant contributions to the field through her extensive publication record in top journals including Proceedings of the National Academy of Sciences, Nature Nanotechnology, and Advanced Functional Materials. Her work has been widely cited and has influenced multiple disciplines including materials science, chemical engineering, and soft matter physics. As a leading researcher in computational materials science, Dr. Balazs has mentored numerous students and postdoctoral researchers throughout her career. Her research has been supported by various funding agencies including the National Science Foundation and Department of Energy. She has established herself as a leading authority in the theoretical modeling of complex soft matter systems. Dr. Balazs' research group at the University of Pittsburgh focuses on developing computational models to understand and predict the behavior of responsive materials. Her team employs a range of simulation techniques to study phenomena ranging from molecular-scale interactions to macroscale material behaviors, with particular emphasis on the coupling between chemical reactions and mechanical responses in polymer systems.
Oliver G. Ernst is a Professor of Numerical Analysis at Technische Universität Chemnitz . His research focuses on Numerical Analysis , Uncertainty Quantification , and Inverse Problems , with applications in Thermo-Hydro-Mechanical (THM) processes , Electromagnetics , and Stochastic Partial Differential Equations . He is associated with the Numerical Analysis group at TU Chemnitz. Key Research Areas : Efficient numerical methods for PDEs Krylov subspace techniques Stochastic finite element methods Multi-physics modeling Geoscientific applications Recent Publications (2025-2010): THM simulations under uncertainty Neural network PDE solvers Bayesian inversion frameworks Rational Krylov algorithms Deflated restarting strategies Collaborations : TU Bergakademie Freiberg University of Manchester Technical University of Munich University of Maryland University of Geneva Software Development : Contributor to OpenGeoSys platform Developer of FEMALY MATLAB library Academic Recognition : h-index 32, i10-index 66, with over 4423 citations since 2020.
Dr. Guangyu Wang is an Associate Professor in the Department of Forest Resources Management within the Faculty of Forestry at the University of British Columbia. He serves as Associate Dean for Asian Strategies and Director of the Asia Forest Research Centre, demonstrating significant leadership within the institution. His academic profile includes membership in the Graduate and Postdoctoral Studies program where he supervises students in Forestry (MASc, MFor, MSc, PhD). Dr. Wang's research interests span sustainable forest management and integrated watershed management, with particular emphasis on computer modeling applications. His work focuses on watershed-scale forest restoration, sustainable development projects, and Chinese forest management practices. He has developed innovative management plans and sustainable models specifically for Chinese forests. Current research includes climate change adaptation, forest carbon markets, and strategic planning for natural resources. His research portfolio includes leadership of several major initiatives: the Asia Forest Research Centre, National Park Research Center, Adaptation of Asia-Pacific Forests to Climate Change project, Asia-Pacific Forestry Education Coordination Mechanism, and the Asia-Pacific Network for Sustainable Forest Management and Rehabilitation (APFNet) Americas Office. His recent publications reveal a strong focus on carbon sequestration, forest therapy benefits, national park management, and the impacts of environmental factors on forest ecosystems across multiple continents. Asia Forest Research Centre (AFRC) - Promoting regionally specific research to enhance forestry practices in Asia National Park Research Center (NPRC) - Analyzing and evaluating national park management approaches worldwide Adaptation of Asia-Pacific Forests to Climate Change - Developing management strategies for climate-resilient forests Multidisciplinary Institute of Natural Therapy (MINT) - Bridging scientific understanding of forest therapy impacts Dr. Wang's work demonstrates a strong commitment to international collaboration, particularly between Canada and Asia-Pacific countries, addressing critical challenges in sustainable forest management, climate change adaptation, and the human-forest relationship. His research combines technical modeling approaches with practical applications for forest management policy and practice.
Nick Virgilio is a Full Professor in the Department of Chemical Engineering at Polytechnique Montréal . His research focuses on soft matter interfaces, polymer blends, and advanced hydrogel systems for biomedical and catalytic applications. Director, Research Laboratory on Surfaces, Interfaces and Soft Matter Member, Research Center for High-Performance Polymer and Composite Systems (CREPEC) Research interests include interfacial phenomena in multiphase systems, self-assembly of soft materials, nanoparticle-hydrogel composites, Pickering emulsions, and polymer microstructure engineering. Scientific awards include the 2010 Canadian Macromolecular Science Thesis Prize and the 2004 Polytechnique Montréal Master's Thesis Award. Recent publications highlight his work in macroporous hydrogels for cancer cell capture, nanoparticle synthesis in soft matrices, and interfacial control of polymer blends. His studies frequently appear in high-impact journals like ACS Applied Materials & Interfaces , Green Chemistry , and Macromolecules . Students under his supervision have explored topics from biofilm mechanics to lunar environment polymer systems across 4 PhD and 6 Master’s theses completed or ongoing.
Dr Abigail Hathway is a Senior Lecturer at the School of Mechanical, Aerospace and Civil Engineering , University of Sheffield, specializing in Building Physics and Indoor Airflow Dynamics . Her work bridges energy efficiency with occupant health , focusing on human-building interactions. Education: PhD in CFD modeling of bioaerosols (University of Leeds) Research interests include: Computational Fluid Dynamics (CFD) for indoor environments Human activity impacts on airflow and infection risk Sustainable drainage systems (SuDS) for urban climate mitigation Smart building controls integrating machine learning Her recent publications address ventilation strategies and airborne transmission mitigation across healthcare, hospitality, and urban settings. She leads research on SuDS microclimate impacts and battery storage optimization in buildings. Current PhD opportunities in her group focus on: Urban stormwater-climate interactions Low-energy ventilation systems Occupant-driven building performance
Dr Thamo Sutharssan is a Senior Lecturer at the University of East London within the Department of Engineering & Construction, School of Architecture Computing and Engineering. A Chartered Engineer and Chartered Manager, he leads both the BEng Aeronautical Engineering and BSc Railway Engineering programs, leveraging extensive prior experience at the University of Portsmouth, Havering College, Derby College, and Rolls-Royce Aerospace Academy. His academic qualifications include a BSc in Electrical & Electronic Engineering, an MSc in Aeronautical Engineering, and a PhD in Computing and Mathematics. Dr Sutharssan's research spans Aeronautics, Embedded systems, System integration, Machine learning, and Prognostics and Health Management (PHM). His work addresses critical reliability challenges in engineering systems, with significant contributions to fuel cell monitoring (2017 review cited 261 times) and data-driven PHM approaches (2015 review cited 145 times). Recent publications demonstrate expansion into AI-driven medical imaging and autonomous robotics. His publication trajectory reveals consistent expertise in prognostics evolving toward cutting-edge AI applications, with highly influential reviews establishing foundational methodologies now widely adopted in energy systems and electronics reliability engineering. Scientific recognition includes: Fellow of the Higher Education Academy Research leadership encompasses a £177,500 Knowledge Transfer Partnership project on fuel cell Balance of Plant systems, alongside academic service as Review Manager for the Prognostics and Health Management Society conferences since 2014. His industry collaborations include Scottish and Southern Energy and Sustainable Energy Technologies. Current academic partnerships involve Heriot-Watt University and New Mansoura University (Egypt), focusing on energy systems integration and engineering education development.
Laura Dalton is an Assistant Professor in the Department of Civil and Environmental Engineering at Duke University. She joined the faculty in August 2022 after completing her Ph.D. at North Carolina State University. Her research focuses on reactive transport in porous media, CO2 sequestration, and advanced imaging techniques like X-ray CT and electrical capacitance tomography. Education: B.A., West Virginia Wesleyan College (2012) B.S. and M.Sc.Eng., West Virginia University (2015, 2016) Ph.D., North Carolina State University (2022) Dalton's work bridges experimental and computational methods, including: 4D imaging of geomaterials Machine learning for material inverse problems Thermal cycling in porous media CO2 mineralization strategies Her recent publications emphasize hybrid imaging modalities, deep learning applications, and reactive transport dynamics. While no specific awards are mentioned, her research aligns with Duke's climate solutions initiatives, including CO2 storage efficiency and sustainable material development.
Paul Strykowski serves as the George W. Taylor Distinguished Professor in the Department of Mechanical Engineering at the University of Minnesota, where his research centers on fundamental fluid dynamics phenomena with applications in propulsion and combustion systems. His core research domains include: Fluid Dynamics and Turbulent Flow Mechanisms Active Flow Control and Stability Theory Combustion Dynamics and Propulsion Systems Specializing in spatio-temporal stability analysis, multi-phase turbulent flows, and the effects of compressibility/density on flow control, his work bridges theoretical modeling with experimental validation in complex fluid environments. Analysis of his publication history (2005-2016) reveals consistent focus on jet flow instabilities, shear layer control, and combustion optimization. Key methodological themes include counterflow techniques for thrust vectoring, microjet-based active control in combustors, and stability analysis of low-density jets—demonstrating interdisciplinary integration of fluid mechanics, thermodynamics, and control theory. Dr. Strykowski's contributions advance critical technologies in gas turbine propulsion, where his investigations into flame anchoring, vortex suppression, and heat release control directly address industry challenges in combustion efficiency and emissions reduction.
Dr. Amr Omar is a researcher at the University of New South Wales , affiliated with the School of Mechanical and Manufacturing Engineering and Department of Chemical Engineering. His work focuses on integrating renewable energy systems—particularly solar thermal technology—with advanced water treatment processes to address global sustainability challenges. PhD in Solar Thermal Systems & Desalination (UNSW, 2017-2020) Postdoctoral Researcher (UNSW Chemical Engineering, 2020-2023) Omar specializes in decarbonizing water processes through solar-driven membrane distillation , multi-effect distillation , and hydrogen production cooling systems . His research bridges laboratory innovation with real-world applications, targeting United Nations' SDG6 (Clean Water) and SDG7 (Affordable Clean Energy). Recent publications emphasize techno-economic modeling of hybrid solar-desalination systems, machine learning applications for water filtration optimization, and geospatial analyses of global desalination site feasibility. Key projects include developing hollow fiber vacuum membrane distillation modules and improving flocculant strength assessment for water catchment monitoring. Scientific Recognition : 2022 Malcolm Chaikin Prize for Research Excellence 2020 UNSW Postgraduate Council Research Student Award 2020 3MT Competition Winner (School of Mechanical & Manufacturing Engineering) 2017 Australian Postgraduate Award Scholarship Omar actively supervises PhD and Master’s projects related to solar-driven water treatment and green hydrogen development. He serves as a journal reviewer and conference panel member, advocating for nanobubble technologies in agricultural irrigation systems.
Dr. Ming Li is an Adjunct Associate Professor at the School of Mechanical and Mining Engineering , The University of Queensland . He focuses on materials science, particularly in energy storage systems. Education : PhD in Chemical Engineering (2017), The University of Queensland. Research Interests : Energy storage materials, electrochemistry, electron microscopy, crystallography, operando characterization, battery degradation mechanisms. Affiliations : Advanced Materials Processing and Manufacturing (AMPAM), Future Autonomous Systems and Technologies, Multiscale Energy Systems. Ming Li’s recent research explores rechargeable battery materials , with significant work on sodium-ion and zinc-ion batteries . His studies emphasize metal nucleation , electrolyte design , and operando electron microscopy to visualize degradation during fast charging. His publications highlight crystallography and advanced characterization techniques , addressing challenges in solid-state batteries and electrochemical stability . Collaborations span institutions, including researchers like Emily Cooper , Shiwei Tao , and Ruth Knibbe . The Advanced Materials Processing and Manufacturing (AMPAM) group at UQ hosts his research. He has contributed to understanding superconducting materials and metallurgical processes in low-carbon steels and iron-silicon alloys.
Prof. Dr. Gunnar Friege is a Professor of Physics Education at the Institute for Mathematics and Physics Education, Faculty of Mathematics and Physics at Leibniz University Hannover. He serves as the head of the Department of Physics Education and is actively involved in the Faculty Council. His office is located in Building 1109, Room 105 at Welfengarten 1A, 30167 Hanover, with office hours on Wednesdays from 9:00-10:00 during the lecture period. Prof. Friege's research spans multiple areas of physics education with a strong emphasis on innovative teaching methods. His work focuses on digital teaching and learning, inquiry-based physics education, and the integration of technology in physics instruction. He has developed numerous projects exploring productive failure approaches in physics learning, smart experiments, and the use of eyetracking technology to understand student engagement with physics concepts. His research also extends to science communication, particularly through physics competitions and outreach activities. Analysis of Prof. Friege's recent publications reveals a strong trend toward inquiry-based learning approaches, formative assessment techniques, and the integration of digital technologies in physics education. His work frequently addresses practical classroom applications of theoretical educational concepts, with many publications providing concrete teaching materials and activities for specific physics topics ranging from buoyancy and thermodynamics to quantum physics and environmental science. The interdisciplinary nature of his research is evident in publications connecting physics education with environmental issues, acoustics, and AI applications. Prof. Friege has been deeply involved in physics competitions throughout his career, participating in the International Physics Olympiad (IPhO) since 1996 in various capacities including as head of the German delegation. He has also been involved with the European Physics Olympiad (EuPhO) since 2017, the Federal Environment Competition (BUW) since 2004, and has created school-level competitions like inventor tournaments and MINT-Fights. His work with the World Federation of Physics Competitions (WFPhC) included serving as Treasurer and Vice President from 2002-2016. As a supervisor, Prof. Friege leads multiple research projects with doctoral students and collaborators including Muriel Schaber, Sophia Siegmann, Julia Hiniborch, and others. His current projects include SoMeCliCs (on social media and climate change education), Productive Failure in physics teaching, Smart Experiments, Eyetracking studies, MasterClasses in quantum physics, and the LernMINT research training group focusing on data-based teaching in STEM subjects. He also directs the Physics Didactics Working Group which investigates subject-specific media competence of prospective teachers and develops digital teaching scenarios.
