Kyun Ho Lee is an Associate Professor in the Department of Aerospace Engineering at Sejong University, specializing in space propulsion systems, satellite thermal engineering, and computational fluid dynamics (CFD). His career spans academic research and practical development in aerospace technologies. Ph.D., KAIST (2009) M.S., Yonsei University (2000) B.S., Yonsei University (1998) His research focuses on cutting-edge aerospace technologies, including Space Propulsion , Thermal Engineering , and Inverse Heat Analysis . Recent work explores CFD modeling of propulsion plumes, rarefied gas dynamics , and optimization of FEEP thrusters for small satellites. Applications extend to green propulsion systems, waste-to-fuel technologies, and advanced emitter designs. The latest publications highlight trends in ionic monopropellants , gallium-based FEEP systems , and thermal cracking of plastic waste for sustainable aviation fuels. Collaborations span computational modeling, propulsion system development, and environmental stress testing for spacecraft.
Malay K. Das is a Professor in the Department of Mechanical Engineering at the Indian Institute of Technology Kanpur . With a PhD from PennState, his career spans advanced research in thermofluid science, focusing on energy systems, carbon capture, and battery thermal management. B. E. (University of Calcutta), M. Tech. (IIT Kanpur), PhD (PennState) Teaches graduate-level courses like Machine Learning for Engineers and Mathematics for Engineers Leads two research laboratories: Energy Conservation and Storage Laboratory and Gas Hydrate Research Laboratory Research Interests: Computational Fluid Dynamics (CFD) applications in energy systems Physics-informed machine learning for thermofluid applications CO2 Sequestration and Methane Hydrate Reservoirs Thermal Management of Batteries and Fuel Cells Modeling Transport Phenomena in Porous Media Recent Publication Trends: His work focuses on energy conversion , gas hydrate dynamics , and advanced materials for electrochemical systems . Key areas include Lattice Boltzmann Methods , viscoelastic flow analysis , and nanofluid applications in carbon capture. Advising: Currently supervising PhD students Sourav Dhawan (CO2 Hydrates), Randeep Ravesh (Methane Recovery), Ayaj A. Ansari (Coalbed Methane), and Pawan K. Pandey (Cerebral Aneurysm Flow). Labs and Teams: Leads the Energy Conservation and Storage Laboratory (8 PhD graduates, 3 in progress) and Gas Hydrate Research Laboratory (2 PhD graduates, 1 in progress). Research teams work on fuel cells , CO2 sequestration , and graphene-based nanomaterials for energy applications.
Marti Roger is an Ordentlicher Professor (Full Professor) of Organic Chemistry and Process Chemistry at the University of Applied Sciences and Arts Western Switzerland (HES-SO), specifically at the Haute école d'ingénierie et d'architecture de Fribourg (HEIA-FR). He is a member of the ChemTech Institute of Chemical Technologies and holds a leadership role in research and education in sustainable chemistry. His academic career includes positions at ZHAW Winterthur/Wädenswil (2004–2009) and HEIA-FR since 2009. Education: B.Sc. in Chemistry from Technikum Winterthur and ETH Zurich, followed by a Ph.D. under Prof. Dr. D. Seebach at ETH Zurich. Postdoctoral research at Sandoz Pharma USA and industrial experience at Carbogen AG in pharmaceutical development and scale-up. Research focuses on synthetic organic chemistry, green chemistry, process development, and polymer science. Key projects include biodegradable facemasks (Public Mask project), smart hydrogels for tissue engineering, and sustainable biofuels from PHA. He leads or collaborates in HES-SO-funded projects addressing environmental challenges in materials and energy sectors. Teaching responsibilities include B.Sc. courses in organic chemistry (aromatic compounds, carboxylic acids, organometallic reactions) and M.Sc. courses in process chemistry and polymer applications. He emphasizes flow chemistry education and sustainable process design. Notable achievements include scaling up diformylxylose production from biomass, designing mini-CSTR reactors for oxidation reactions, and developing biodegradable polymers for medical use. His work balances academic innovation with industrial relevance, guided by life-cycle assessments for environmental impact minimization. Labs/Teams: Active in ChemTech Institute and collaborates with partners like Hepia, iTEC, and VS-Instituts. Projects span from bio-based materials to CO2-neutral fuels and eco-concretes.
Dr. Igor Chernyavsky is a Senior Lecturer in Applied Mathematics at the Department of Mathematics, The University of Manchester. His research focuses on complex living systems, particularly transport phenomena and biofluid dynamics in tissue physiology. He leads projects in continuum mechanics, mathematics in life sciences, and uncertainty quantification. His work contributes to UN Sustainable Development Goals through initiatives like Digital Futures, Christabel Pankhurst Institute, and Henry Royce Institute. Research interests include placental hemodynamics, biomimetic models, and multiscale modeling of biological systems. Key projects involve placental circulation modeling for stillbirth prediction, umbilical cord dynamics, and microfluidic studies of blood flow in porous media. He collaborates on placental imaging, bioreactor engineering, and clinical placentology. Recent publications highlight placental oxygenation, umbilical cord solute transfer, and robust fabrication of PDMS microcapsules mimicking red blood cells. His work bridges experimental and theoretical approaches, emphasizing clinical translation. He supervises PhD students and leads grants totaling £ millions, including Maternal & Fetal Health Research Centre (2018-2035) and ROBUST-BIOPRINT (2023-2025). He actively seeks collaborations in biomaterials, fluid dynamics, and biomedical engineering. Labs/teams: Continuum Mechanics Group, Mathematics in Life Sciences Team, and Uncertainty Quantification & Data Science Group.
Dr. Trung Van Nguyen is a Professor in the Department of Chemical & Petroleum Engineering at the University of Kansas, part of the School of Engineering. His research focuses on electrochemical storage technologies, including fuel cells and redox flow batteries, with an emphasis on improving energy density and system efficiency. Key areas include molecular structures of supersaturated electrolytes, solid-liquid storage concepts, and PEM fuel cell optimization. He holds a B.S. from North Carolina State University (1981), M.S. (1985), and Ph.D. (1988) from Texas A&M University. Notable awards include the 2016 Bellows Scholar and 2015 Miller Scholar from the University of Kansas School of Engineering. Dr. Nguyen has secured grants such as an NSF award ($300,000) for PEM fuel cell research (2018–2021) and a Largo Clean Energy grant ($225,000) for electrolyte densification (2022–2023). His work spans collaborations with institutions like KAIST (South Korea), Pacific Northwest National Laboratory, and universities in Hong Kong and Taiwan. Highlighted Research: Solid/Liquid high-energy-density storage for redox flow batteries, hydrogen-vanadium fuel cells, and PEM fuel cell water management. Key Techniques: Electrochemical characterization, in-situ membrane analysis, and catalyst design. Recent publications (2020–2023) address vanadium electrolyte behavior, Nafion nanostructure modification, and hybrid storage systems. Presentations include the Electrochemical Society meetings and international forums on energy storage.
Jouni Ritvanen is a Full Professor (tenured) at LUT University's School of Energy Systems in Lappeenranta, Finland. His research focuses on gas-solid flow modeling, particularly fluidized bed applications and carbon capture technologies. He has developed a dynamic 1D tool suitable for fluidized bed applications that includes all key phenomena related to flow, reactions, and heat transfer, which has been widely applied to carbon capture and storage processes. His educational background includes: Doctor of Science (Technology) in Energy and Environmental Technology from Lappeenranta University of Technology (2006) Master of Science (Technology) in Energy from Lappeenranta University of Technology (2001) Title of docent in LUT Energy (2016-present) Ritvanen's research interests center around gas-solid flow modeling with particular emphasis on fluidized beds and related applications. His expertise includes developing dynamic modeling tools for fluidized bed applications that incorporate flow, reactions, and heat transfer phenomena. His work has significant applications in carbon capture and storage processes, where his models are used for performance evaluation. He also explores the integration of artificial intelligence techniques in energy systems optimization and has contributed to various aspects of clean energy technologies including chemical looping combustion and sorption-enhanced gasification. His recent publications (2023-2025) demonstrate a continued focus on advancing fluidized bed technologies, particularly in carbon capture applications through calcium looping processes. There's a notable trend toward integrating artificial intelligence methods with traditional engineering approaches, as seen in his work on deep learning-based electricity price forecasting and AI applications for reducing energy costs in carbon capture plants. His research bridges theoretical modeling with practical industrial applications, addressing key challenges in clean energy transition. Professor Ritvanen has served as a peer reviewer for numerous prestigious journals including Chemical Engineering Journal, Energy, Fuel, and Powder Technology, demonstrating his standing in the academic community.
Sheldon Green is a Professor in the Department of Mechanical Engineering at the University of British Columbia's Faculty of Applied Science. A licensed Professional Engineer (P.Eng.) and Fellow of both the American Society of Mechanical Engineers (FASME) and Canadian Academy of Engineering (FCAE), he maintains an active research program focused on industrial fluid mechanics applications. His work bridges academic rigor with real-world industrial challenges through extensive collaborations with major companies. Education: Bachelor of Applied Science (University of Toronto) Master of Applied Science (California Institute of Technology) Doctor of Philosophy (California Institute of Technology) Professor Green's research centers on fluid-structure interactions in industrial processes, with particular emphasis on railroad friction control systems, paper manufacturing mechanics, and energy recovery technologies. His laboratory develops experimental and analytical solutions for liquid friction modifier application on railroads, electrospraying techniques for moving surfaces, paper creping and pressing optimization, and advanced energy recovery ventilators. These investigations address critical industry challenges in fuel efficiency, product quality, and energy conservation through precise fluid mechanics understanding. Analysis of his recent publications reveals consistent focus on multiphase flows, fiber network mechanics, and heat/mass transfer phenomena. Key themes include cellulose fiber network modeling for tissue paper, moisture measurement in paper pressing, membrane behavior in energy exchangers, and liquid-solid interactions in railroad systems. His work demonstrates strong industry-academic synergy with nearly all studies involving partnerships with major industrial players. Accolades include: Dean’s Excellence in Service Award (UBC, 2017) Fellow of the American Society of Mechanical Engineers Fellow of the Canadian Academy of Engineering Member of The Technical Association of the Pulp and Paper Industry Professor Green secures substantial research funding through industry partnerships with LB Foster (rail friction systems), FP Innovations/Kruger Products/Solenis/Albany (paper creping), AstenJohnson (paper pressing), and Core Energy Recovery Solutions (ventilators). His academic collaborations span Professors Boris Stoeber, Neil Balmforth, Srikantha Phani, and Steven Rogak across mechanical engineering subdisciplines. While student names aren't published, his prolific output indicates active mentorship of graduate researchers. He directs the Applied Fluid Mechanics Laboratory (CEME 2058) where experimental facilities enable high-precision studies of industrial fluid phenomena, particularly in railroad and paper manufacturing contexts where fluid mechanics directly impacts operational efficiency and product quality.
Marco Picasso is an Adjunct Professor at École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Basic Sciences, Department of Mathematics, and the Picasso Group. He is also a member of the EPFL-Gymnases Interface and the Association des Professeurs de l'EPFL. Teaching: Analysis III (Vector Calculus, Complex Analysis), Numerical Analysis and Optimization, Advanced Numerical Analysis II Research: Numerical simulation of complex physical systems using partial differential equations, with applications to: Aluminium electrolysis Viscoelastic fluids and glacier dynamics Adaptive finite element methods and neural networks for parametric PDEs His recent publications focus on free surface flows, anisotropic adaptation, and multiphase systems. Collaborators include Alexandre Caboussat (HES-GE) and Jacques Rappaz. He supervises PhD students such as Paride Passelli, Léo Diserens, and Maude Girardin.
Dr. Archibong Eso Archibong is an Associate Professor in Mechanical Engineering and serves as the Programme Director for Mechanical Engineering and Academic Lead for Engineering Labs & Workshops at the University of Birmingham Dubai Campus. He is affiliated with the School of Engineering and the Department of Mechanical Engineering, contributing to both academic leadership and research innovation. Education: PGCert in Higher Education, University of Birmingham (UK), 2021 PhD in Energy Engineering (Multiphase Flows), Cranfield University (UK), 2015 MSc in Process Systems Engineering, Cranfield University (UK), 2011 BEng (Hons) in Mechanical Engineering, Cross River University of Technology (Nigeria), 2008 Archibong's research focuses on multiphase flow systems with applications in low-carbon energy, carbon removal (including Direct Air and Ocean Capture), industrial processes, and biomedical engineering. His work integrates computational modeling, experimental analysis, and economic assessment to develop sustainable solutions. Key areas include hydrogen production, hybrid energy cycles, microbial fuel cells, and fluid-structure interaction in heart valves. He also contributes to STEAM pedagogy, digital education, and curriculum design for underserved communities. The recent publications reflect a strong trend in energy sustainability, with a focus on thermodynamic efficiency, multiphase flow modeling, and clean energy integration. Articles span biomedical applications of fluid dynamics, hydrogen safety in nuclear systems, and machine learning for energy prediction in buildings, showcasing a multidisciplinary approach to engineering challenges. Scientific Awards and Honors: Senior Fellow (SFHEA), Higher Education Academy (Advance HE), 2022 Fellow (FIMechE), Institution of Mechanical Engineers, 2022 Chartered Engineer, Engineering Council (UK), 2021 MIT ETT Fellowship supported by TotalEnergies, 2019 Cranfield University/HEFCE Doctoral Studentship (2012–2015) Archibong actively advises on energy policy and delivers workshops in lean-resource settings. He has served as a grant reviewer for the British Council and sits on the Topical Advisory Board for Fluids . He is involved in UAE national initiatives on hydrogen development and waste-to-energy projects. He mentors prospective MRes and PhD researchers and collaborates with industry partners such as BP, Schlumberger, and TotalEnergies. His leadership extends to curriculum development for non-profits and humanitarian agencies aligned with the UN Sustainable Development Goals. He leads research in fluids and multiphase systems, with active projects on electrochemical hydrogen production, hybrid energy cycles, and Direct Air Capture technologies. His team employs advanced modeling and experimental techniques to address global challenges in energy, environment, and healthcare.
Mohamed Houssem Kasbaoui is an Assistant Professor in the Department of Mechanical and Aerospace Engineering at Arizona State University's School for Engineering of Matter, Transport and Energy. His research focuses on Computational Fluid Dynamics and Multiphase Flow simulations, with expertise in particle-laden flows, immersed boundary methods, and high-fidelity numerical tools. PhD, Aerospace Engineering (Cornell University, 2017) MSc, Aerospace Engineering (Cornell University, 2015) MSc, Theoretical Physics (Université Paris-Sud, 2014) Diplôme d'Ingénieur (Ecole Centrale Paris, 2013) BSc, Theoretical Physics (Université Paris-Sud, 2011) His work spans particle-resolved DNS , turbulent flow modulation , and environmental applications like microplastic transport in riverbeds. He leads the Kasbaoui Research Group , developing open-source tools like LEAP for CFD simulations. Recent publications highlight expertise in: Vortex dynamics in dusty flows Drag reduction mechanisms Immersed boundary modeling Microplastic trapping in sediment Swirling flow simulations Scale-separated combustion modeling Awarded the 2021 ACS Petroleum Research Fund Doctoral Investigator Award , his group actively seeks students with skills in Applied Mathematics and Parallel Programming . Research spans NSF-funded projects on Environmental Microplastics and Planetary Dust Clouds .
Arjan Frijns is an Associate Professor at Eindhoven University of Technology (TU/e) within the Department of Mechanical Engineering. He leads the Energy Technology group and specializes in micro-thermo fluidics, with a focus on heat and mass transfer at nano- and micro-scales, evaporative cooling, and multi-scale modeling (MD, DSMC, hybrid MD-DSMC, CFD). His work bridges fundamental research and experimental validation, including collaborations with industry and Maastricht University on human thermoregulation. Research Areas: Microscale heat transfer, rarefied gas flows, human thermal comfort, hybrid modeling techniques. Key Collaborations: Department of Human Biology (Maastricht University), Technische Universität Darmstadt, Ghent University/IMEC. His publications highlight innovations in microfluidic device modeling, thermal management systems, and thermoregulation models like ThermoSEM. Recent work integrates machine learning for rarefied gas dynamics, funded by NWO under the RareTrans program. Grants: Netherlands Organization for Scientific Research (NWO) - RareTrans project (HTSM-15376).
Dr. Daniel Hoornweg is an Associate Professor and Richard Marceau Chair at the Faculty of Engineering and Applied Science of Ontario Tech University. His research focuses on urban systems, energy use, waste management, and sustainability. He brings over 20 years of experience as a World Bank Lead Advisor on cities and climate change, and former Chief Safety and Risk Officer at the Ontario Technical Safety Standards Association (TSSA). Education: PhD in Environmental (Civil) Engineering, University of Toronto (2015) MSc in Environmental (Municipal) Engineering, University of Guelph (1992) BSc in Civil Engineering (Geotechnical), University of Waterloo (1985) Research Interests: Climate change mitigation through urban infrastructure redesign Energy systems optimization and waste reduction strategies Global sustainability frameworks and local implementation Material flows in cities (e.g., energy and solid waste) Key Publications: His work explores urban sustainability challenges, including waste peak projections and low-carbon infrastructure. Recent themes emphasize African urbanization challenges and planetary boundary frameworks. Affiliations: Professional Engineers Ontario, Evergreen CityWorks, Columbia University, MIT, and others. Teaching: Courses include Fossil Fuel Energy Conversion and Hydrogen Power Systems , focusing on energy systems from technical, economic, and policy perspectives.
Pekka Peljo is an Associate Professor at Aalto University's Department of Chemistry and Materials Science, leading the Physical Electrochemistry and Electrochemical Physics (PhysElectrochemPhys) research group since September 2018. His work focuses on charge transfer mechanisms at solid-liquid interfaces and within solid materials, with a strong emphasis on developing advanced batteries for large-scale energy storage. Education: Master's degree in Engineering and Technology from Helsinki University of Technology His research bridges Electrochemistry and Energy Storage , particularly in Redox Flow Batteries and Hydrogen Production via hydrocarbon electrolysis. Current projects include computational modeling of redox potentials, experimental flow battery designs, and scalable synthesis of cellulose nanocrystals for electrochemical applications. Selected trends from his 75+ publications include Electron Transfer at interfaces, Operando Battery Monitoring , and Sustainable Energy solutions. His work aligns with UN Sustainable Development Goals (SDGs) for climate action and affordable clean energy. Scientific contributions are recognized through grants from the Academy of Finland, EU Horizon Europe, and strategic funding for projects like CompBat (2020-2023) and H2fromHE (2024-2028). He has presented at international conferences (e.g., ELCAT, Spain, 2011) and hosted collaborations with institutions like EPFL. As Principal Investigator, Peljo leads projects such as PREDICTOR (2024-2028) for high-throughput screening of battery materials and Bi3BoostFlowBat (2025-2026). His group also investigates Hydrogen Production from natural gas and Vitamin B6-based Electrolytes for aqueous batteries.
Ganesh Veluswamy is a Research Fellow at the School of Engineering, RMIT University. His research focuses on sustainable engineering solutions, including biochar applications, thermal treatment of biosolids, and waste-to-energy systems. He explores environmental management strategies and renewable energy technologies to address challenges in chemical and environmental engineering. His work integrates experimental techniques with computational modeling, such as Aspen Plus simulations for techno-economic analysis and CFD modeling for fluid dynamics. Key areas include PFAS destruction during thermal processes, hydrogen production from biogas, and algal biomass systems. Veluswamy contributes to advancing circular economy principles through innovative approaches to waste valorization and resource recovery. His research also extends to fluid catalytic cracking units, multiphase flow optimization, and biohythane utilization in fuel cells. These efforts highlight a commitment to bridging engineering innovation with environmental sustainability.
Fan Zhou is a Researcher at Aalborg University's Department of Thermal Engineering within the Faculty of Engineering and Science, specializing in hydrogen and electro-fuels. His work focuses on high-temperature proton exchange membrane (HT-PEM) fuel cells and solid oxide electrolysis systems, with applications in power-to-X and micro combined heat and power (micro-CHP) solutions. He holds a PhD awarded in February 2016 and maintains an active research profile with 27 documented publications. His research interests center on Fuel Cell Technology , Hydrogen and Electro-fuels , and Thermal Engineering , with specific expertise in performance degradation mechanisms, fault diagnosis using electrochemical impedance spectroscopy (EIS) and machine learning, thermal management, and dynamic operation of energy conversion systems. Current investigations address real-time monitoring challenges in residential microgrids and power-to-X applications, examining how operational parameters like temperature, pressure, and gas composition affect system efficiency and durability. Analysis of his 15 most recent publications (2021-2025) reveals a strong emphasis on data-driven approaches for fault detection in fuel cells, dynamic operation effects on electrolysis cells, and integration of clean energy systems. Key trends include the application of convolutional neural networks for online diagnostics, investigation of AC/DC frequency effects in solid oxide electrolysis, and development of control systems for micro-CHP applications using HT-PEM fuel cells. Dr. Zhou currently participates in two major research projects: Robust And Dynamic Electrolysis for Power-to-X (2024-2027), focusing on advanced electrolysis technologies for power-to-X applications, and FC-COGEN (2023-2025), developing micro combined heat and power systems. Both projects are funded by the Energy Technology Development and Demonstration Program (EUDP) and involve collaboration with industry partners and researchers including Søren H. Jensen and Simon L. Sahlin from AAU's Power Electronics and Drives group.
