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Rajinder Pal is a Professor at the University of Waterloo, specializing in rheology of complex fluids, colloidal systems, and transport phenomena. His research focuses on the rheological behavior of suspensions, emulsions, and nanomaterials, with particular emphasis on non-Newtonian fluid dynamics, interfacial phenomena, and exergy analysis of multiphase flows. He has contributed extensively to understanding the viscosity modeling of concentrated suspensions and emulsions, nanoparticle-stabilized dispersions, and thermodynamic optimization of industrial processes. Key research areas include the development of novel viscosity models for asphaltene nanoaggregates, cellulose nanocrystals, and starch nanoparticles in industrial applications. His work bridges fundamental fluid mechanics with practical engineering challenges, addressing topics such as catastrophic phase inversion in Pickering emulsions, drag reduction in turbulent flows, and exergy destruction in pipeline systems. Pal also investigates the integration of nanomaterials into energy storage systems, such as graphene-based supercapacitors stabilized by ionic liquid/surfactant complexes. His publications span over two decades, demonstrating sustained contributions to chemical engineering, material science, and colloid science. Notable recent work includes studies on rheology of high internal phase emulsions (HIPEs), nanocomposite mechanical properties, and the thermodynamic analysis of cyclic processes using the Gouy-Stodola theorem. Pal's research has implications for food processing, pharmaceuticals, oil recovery, and sustainable materials development. While no formal awards or grants are explicitly listed in the provided materials, his extensive publication record reflects significant academic impact. He advises on graduate research in rheology and colloids but no specific student names are mentioned. Pal's work often emphasizes practical applications of fundamental fluid mechanics principles, with a focus on energy-efficient systems and nanotechnology-driven solutions.

• Rheology
• Colloidal Dispersions
• Material Science
• +7 more

Dr. Amir H. Azimi serves as a Professor in the Department of Civil Engineering at Lakehead University and holds an appointment at the Centre of Excellence for Sustainable Mining & Exploration. His expertise centers on fluid dynamics within environmental and engineering contexts. His academic credentials include: BSc from Azad University of Science and Technology, Iran MSc from Iran University of Science and Technology, Iran PhD from the University of Alberta Research focuses on hydraulics and environmental fluid mechanics, specializing in multiphase flows (bubbly/sediment-laden systems), mixing mechanisms in slurry/bubbly jets and plumes, sediment/pollutant transport in aquatic environments, erosion-deposition dynamics, weir/spillway hydraulics, and non-Newtonian fluid behavior. His methodological approach integrates experimental techniques (flow visualization, digital image processing, fiber optic probe signal analysis) with numerical modeling through custom research code development. As a licensed Professional Engineer (P.Eng.), he contributes to sustainable mining research through the Centre of Excellence for Sustainable Mining & Exploration, advancing practical applications in sediment management and fluid system design.

• Hydraulics
• Environmental Fluid Mechanics
• Multiphase Flow
• +6 more

Marius Paraschivoiu is a Professor in the Department of Mechanical, Industrial and Aerospace Engineering at Concordia University, within the Faculty of Engineering and Computer Science. His research focuses on computational fluid dynamics (CFD), finite element methods, and aerodynamic simulations with applications to wind energy systems, acoustic simulations, and turbulence modeling. He holds a PhD in engineering and has expertise in parallel computing and urban wind energy potential assessment. His work emphasizes optimizing vertical axis wind turbine (VAWT) performance in urban environments, including roof-mounted installations, wake interactions, and turbulence effects. Paraschivoiu has extensively studied the impact of building geometry, corner placements, and fluid-structure interactions on turbine efficiency. His CFD-based analyses address challenges like mesh adaptation, multiphase flows, and real-gas modeling for hydrogen systems. Key research themes include improving wind energy harvesting through innovative turbine designs, mitigating aerodynamic noise, and enhancing flow uniformity in complex configurations. Paraschivoiu’s contributions span over 50 peer-reviewed articles, with recent focus on urban microclimate effects, VAWT array optimization, and turbine blade morphing concepts. He maintains an active research website at Concordia University and collaborates on applied projects involving CFD validation and industrial gas turbine combustor emissions.

• Computational Fluid Dynamics
• Finite Element Methods
• Aerodynamic Simulations
• +7 more

Dr. Leonie Baumann is an Assistant Professor in the Department of Economics at McGill University, specializing in Economic Theory, Networks, Mechanism Design, and Game Theory. She holds a Ph.D. (summa cum laude) and M.Sc. in Economics from the University of Hamburg, and dual B.A. degrees from the University of Siegen. Currently on maternity leave, Dr. Baumann previously served as a Postdoctoral Research Associate at the University of Cambridge. Her research explores social interactions in microeconomic theory, with a focus on network formation dynamics, strategic evidence disclosure, and robust implementation mechanisms. Recent work examines how network structures influence economic decision-making and resource allocation. Dr. Baumann's publications demonstrate consistent focus on network economics and game-theoretic modeling, with emerging applications in discrimination mechanisms and evidence disclosure. Her methodological approaches combine theoretical rigor with computational innovations. Awards & Recognition: Vice-Chancellor's Innovation Award (2020) Econometric Society Travel Grant (2015) Multiple research grants including SSHRC and FQRSC funding Supervision & Service: Currently advising 4 doctoral students on topics ranging from biosolvent characterization to indoor air quality Active editorial board member for Journal of Mathematical Economics Organizes international conferences on economic theory

• Economic Theory
• Networks
• Mechanism Design
• +1 more

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.

• Thermodynamics
• Multiphase systems
• Surfaces, interfaces and thin layers
• +2 more

Dominic Pjontek is an Associate Professor in the Department of Chemical and Biochemical Engineering within the Faculty of Engineering at Western University. He is based in Room 377 of the Thompson Engineering Building and serves as an active researcher and educator in multiphase reactor engineering. His work is conducted both on the Western University campus and at the Institute for Chemicals and Fuels from Alternative Resources (ICFAR), a specialized facility for sustainable technology development. Dr. Pjontek received his Ph.D. and B.A.Sc. in Chemical Engineering from the University of Ottawa, where he earned multiple prestigious scholarships including the NSERC Postgraduate Scholarship for Doctoral Studies and the University of Ottawa Excellence Scholarship for Graduate Studies. His research focuses on the development and optimization of multiphase reactors through experimental studies, process modeling, and scale-up considerations. Key research areas include CO 2 conversion/utilization using gas-liquid-solid reactors, fundamental understanding of interfacial area and flow behavior in multiphase reactors, and innovative sustainable technologies for converting waste streams to value-added products. His work addresses critical technological barriers in developing next-generation reactors for sustainable chemical production. Analysis of Dr. Pjontek's recent publications reveals a strong trend toward carbon dioxide conversion technologies, fluid coker optimization, and sustainable process development. His research group has published extensively on gas-liquid-solid fluidized beds, reactor fouling mechanisms, and CO 2 hydrogenation processes, with increasing focus on sustainable chemical production methods that align with global decarbonization efforts. Scientific Awards and Recognitions: R. Mohan Mathur Award for Excellence in Teaching (2018) Maurice Bergougnou Teaching Award for Heat Transfer Operations (2015-2018) NSERC Postgraduate Scholarship for Doctoral Studies Multiple University of Ottawa Excellence Scholarships NSERC Canada Graduate Scholarship for Master's Studies Dr. Pjontek actively supervises numerous graduate students working on cutting-edge projects related to multiphase reactor engineering. His research group includes multiple Ph.D. and M.E.Sc. students working on projects such as CO 2 conversion to commodity chemicals, biosurfactant production, fluid coker heater modifications, and stripper shed fouling monitoring. He has successfully graduated numerous students who have completed theses on topics including fluid coker cyclone fouling, hydrodeoxygenation processes, and particle agglomeration phenomena. His research is supported through collaborations with industry partners like Syncrude Canada Ltd. and Origin Materials, as well as government funding agencies. Dr. Pjontek's laboratory work is conducted within the Chemical and Biochemical Engineering facilities at Western University, with specialized equipment for studying multiphase reactor systems. His research group maintains collaborations with other faculty members including Cedric Briens, Lars Rehmann, and Jose Herrera, forming a strong research cluster focused on sustainable process engineering and reactor technology development.

• Multiphase reactor engineering
• CO2 conversion and utilization
• Bio-oil upgrading
• +7 more

Rajeev Jaiman is a Professor in the Department of Mechanical Engineering at the University of British Columbia's Faculty of Applied Science. A graduate of IIT Bombay (B.Tech) and the University of Illinois at Urbana-Champaign (M.S., Ph.D. in Aerospace Engineering), he holds the NSERC/Seaspan Industrial Research Chair in Intelligent and Green Marine Vessels (IGMVs) and is recognized as a SNAME Fellow. PhD in Aerospace Engineering from University of Illinois, Urbana-Champaign Senior Member of AIAA and member of APS, ASME, SNAME, and USACM His research focuses on fluid-structure interaction , computational mechanics , and data-driven modeling for marine/aerospace applications. Current work includes: High-fidelity multiphysics simulations Machine learning integration for fluid dynamics Phase-field methods for interface capturing Bio-inspired structural optimization Flow control techniques for vortex-induced vibration Recent publications emphasize graph neural networks for fluid dynamics prediction, phase-field modeling of complex interactions, and machine learning applications in multiphase flows. Research trends show strong interdisciplinary connections between computational mechanics, ocean engineering, and data science. Scientific awards include: NSERC/Seaspan Industrial Research Chair Fellow of The Society of Naval Architects and Marine Engineers (SNAME) As director of the Computational Multiphysics Laboratory, he develops high-performance computing frameworks for marine , aerospace , and biomechanics applications. His work spans numerical algorithms, HPC-based solvers, and bio-inspired design optimization.

• Fluid-structure interaction
• Computational mechanics
• Intelligent ocean systems
• +3 more

R.E. Khayat is a Professor in the Department of Mechanical & Materials Engineering at Western University, specializing in fluid mechanics, heat transfer, and non-Newtonian fluid dynamics. He holds a Ph.D. in Chemical Physics from McGill University (1989) and has over 35 years of academic and research experience, including roles at NRC Industrial Materials Institute and McGill University. Education: B.Eng. (Honours) Mechanical Engineering (1980), M.Eng. Civil Engineering (1982), Ph.D. Chemical Physics (1989), all from McGill University. Research focuses on thermal convection, free-surface flows, and hydrodynamic stability, with contributions to chaos theory in non-Newtonian flows. Has supervised nearly 50 graduate students and published over 150 journal papers in prestigious journals like Journal of Fluid Mechanics and Physical Review Letters . Active in academic leadership roles, including Associate Chair (2003–2005) and Associate Professor (1998–2003) at Western University. His research group explores micro-scale thermal convection, nano-fluid dynamics, and multiphase flow phenomena, with applications in polymer processing and materials science. Collaborative projects include studies on viscoelastic jet behavior and hydraulic jump formation in complex fluids. Awards and recognitions include international acclaim for work on chaos theory in fluid dynamics. His lab focuses on computational modeling and experimental validation of fluid flow phenomena, supported by grants from NSERC and industry partnerships.

• Fluid Mechanics
• Heat Transfer
• Thermal Convection
• +7 more

Marek Stastna is a Professor at the University of Waterloo, specializing in stratified fluid dynamics, climate dynamics, and wave dynamics in porous media. His research focuses on numerical simulations of geophysical fluid systems, including radiatively driven convection in ice-covered lakes, internal solitary waves, gravity currents, and turbulence-resolving spectral element methods. He has contributed to understanding shear instability, reactive tracer transport, and the interaction of waves with porous barriers. Stastna's work bridges computational fluid dynamics with environmental applications, addressing challenges in coastal oceanography, climate modeling, and multiphase flow phenomena. Key research themes include: Stratified shear instability in cold water systems 3D simulations of internal swash zones and turbulent bursts Effects of solar radiation on buoyant flows under ice covers Graph-based analysis of wave behavior in shear currents Recent publications (2023-2025) emphasize advanced numerical methods for resolving multi-scale phenomena such as large-amplitude internal waves, reactive tracer dynamics, and cabbeling-induced instabilities. His work on gravity currents and porous media interactions highlights practical applications in environmental engineering and hydrology.

• Stratified Fluid Dynamics
• Climate Dynamics
• Wave Dynamics in Porous Media
• +3 more

Pirathayini Srikantha serves as Associate Professor in the Department of Electrical Engineering & Computer Science at York University's Lassonde School of Engineering, holding a Tier 2 Canada Research Chair in Reliable and Secure Power Grid Systems with critical national security implications for Canada's power infrastructure. Her academic foundation includes: B.A.Sc. in Systems Design Engineering from University of Waterloo (2009) M.A.Sc. in Electrical and Computer Engineering from University of Waterloo (2013) Ph.D. from University of Toronto's Edward S. Rogers Sr. Department of Electrical and Computer Engineering (2017) Professor Srikantha's research centers on game theory, large-scale optimization, and distributed control to enable adaptive power grid operations. Her work addresses cybersecurity vulnerabilities in smart grids through distributed coordination frameworks and develops transactive energy market mechanisms that incentivize grid support during congestion. By integrating AI breakthroughs, she focuses on creating systems that automatically infer, predict, and respond to power disturbances while enhancing infrastructure resilience against evolving threats. Her publication trajectory reveals consistent innovation in grid security and optimization, with increasing emphasis on AI-driven solutions for grid resilience since 2015. Key thematic evolution shows progression from foundational distributed control (2015-2017) to sophisticated cybersecurity applications (2018-2021), consistently appearing in premier venues like IEEE Transactions on Smart Grid. Her scholarly impact is recognized through: Best paper award at IEEE Smart Grid Communications Runner-up best poster award at ACM Women in Computing As Canada Research Chair holder, she directs a federally funded research program addressing critical grid vulnerabilities, while serving as Associate Editor for IEEE Transactions on Smart Grid. Her work bridges theoretical advances in game-theoretic security with practical grid applications, though specific student mentorship details aren't publicly enumerated in source materials. Her research group operates at the intersection of electrical engineering and computer science, developing next-generation tools for grid operators through collaborations with Canadian energy infrastructure stakeholders.

• Game Theory
• Large-scale Optimization
• Distributed Control
• +5 more

Dr. Ioan Nistor is a Professor of Hydraulic and Coastal Engineering at the University of Ottawa , affiliated with the Department of Civil Engineering . He also serves as the Assistant Vice-Provost, Graduate and Postdoctoral Studies . His research focuses on hazards associated with extreme hydrodynamic loading on infrastructure, coastal erosion, and disaster risk reduction. He chairs the Maritime and Coastal Division of IAHR and contributes to design guidelines for tsunami-resistant buildings through the ASCE7 Tsunami Loads Subcommittee . Dr. Nistor holds editorial roles at Journal of Waterways, Ports, Coastal and Ocean Engineering (ASCE), Coastal Engineering Journal , and Canadian Journal of Civil Engineering . He has received prestigious awards, including the 2014 JWPCOE Outstanding Paper Award and the 2010 Tsunami International Society Award. Prior to academia, he worked as a hydraulic engineer at AECOM-TECSULT Montreal , contributing to water resources projects globally. Research Interests: Tsunami impact mitigation, dam failure analysis, coastal vegetation dynamics, climate change adaptation, and nature-based solutions for coastal protection. Professional Activities: Board member of the Canadian Coastal Science and Engineering Association, voting member of ASCE7 Tsunami Subcommittee. His recent work emphasizes probabilistic tsunami hazard assessments and the integration of ecological engineering principles into coastal infrastructure design. Collaborative projects include Living Dyke initiatives and field studies on post-disaster resilience.

• Coastal Engineering
• Hydraulic Engineering
• Extreme Hydrodynamic Loading
• +5 more

Scott Ormiston is a Professor in the Department of Mechanical Engineering at the University of Manitoba's Price Faculty of Engineering. He holds a B.Sc. (1981), M.A.Sc. (1984), and Ph.D. (1990) in Mechanical Engineering from the University of Manitoba and University of Waterloo. His research focuses on Computational Fluid Dynamics (CFD) , specializing in two-phase flow modeling, heat transfer, and numerical methods. Key areas include falling film condensation/absorption, turbulent flow in tube bundles, and CFD code development for industrial applications. His group develops in-house CFD codes and leverages commercial tools like ANSYS CFX and Fluent. Research emphasizes applications in power generation, refrigeration, and chemical processing industries. Recent work includes supercritical fluid instability analysis, phase change material thermal performance, and desalination systems. He actively seeks M.Sc. and Ph.D. students with strong fluid mechanics, heat transfer, and programming skills. Labs/Teams: His research group focuses on CFD software development and industrial collaboration. Ongoing projects involve modeling heat exchangers, aerothermal systems, and energy-efficient materials.

• Computational Fluid Dynamics (CFD)
• Thermo-fluid Systems
• Two-phase Flow Modeling
• +4 more

J.M. Floryan is a Professor in the Department of Mechanical and Materials Engineering at Western University. He holds a Ph.D. from Virginia Tech (1980) and completed postdoctoral work at Northwestern University (1981). His research focuses on fluid mechanics , particularly flow manipulation strategies using surface roughness, heating patterns, and boundary conditions, with applications across laminar-turbulent transition, microchannel transport, and turbulent structures. Education : M.Sc. (Warsaw Technical University, 1974), Ph.D. (Virginia Tech, 1980), Postdoctoral (Northwestern University, 1981) His research interests span hydrodynamic stability, spectral methods, immersed boundary conditions, natural/forced convection, and biomedical flows. Methodologies include spectral algorithms for moving boundary problems and stability analysis of spatially modulated systems. Recent work emphasizes flow control via grooves and heating , drag reduction, and energy-efficient fluid systems. The 15 most recent publications (2022-2020) explore thermally-induced streaks, wall vibration effects, wavenumber lock-in, droplet impact physics, and peristaltic pumping. These studies employ direct numerical simulations , spectral accuracy, and experimental validation, with keywords covering hydrodynamic stability , drag reduction , buoyancy convection , and microfluidics . Scientific accolades include Fellowships from the American Physical Society , ASME , and Canadian Academy of Engineering , alongside the Humboldt Research Prize and Canada Research Chair . He has held visiting appointments at institutions like Technion (Israel), Tokyo Metropolitan University (Japan), and Darmstadt Technical University (Germany). Teaching includes graduate courses on Hydrodynamics Stability , Computational Fluid Mechanics , and seminars on Heat Transfer . He advises PhD/Master’s students like Y. Wang and S. Shadman. Professional roles include President of the Canadian Society for Mechanical Engineering and leadership in international mechanics symposia.

• Fluid Mechanics
• Hydrodynamic Stability
• Spectral Methods
• +7 more

Alexander Bardelcik is an Associate Professor in the Department of Mechanical Engineering at the University of Guelph. His research focuses on advanced materials processing, particularly in metal forming, microstructural characterization of multi-phase steels, and energy absorption in composite structures. He specializes in hot stamping, coating growth dynamics, and finite element modeling of materials under extreme conditions. Education: MASc, PhD (Engineering) Licenses: Professional Engineer (PEng) His research interests include: Development of novel metal forming processes (e.g., tailored hot stamping) Constitutive modeling of dual-phase and precipitation-strengthened steels 3D-printed polymer composites for energy absorption applications Coating growth kinetics in Al-Si systems Recent work emphasizes the use of artificial neural networks to model coating growth and the application of realistic microstructural models (RVE) for predicting fracture behavior in multiphase steels. His studies span from low-temperature mechanical behavior of HSLA steels to high-strain-rate characterization of advanced alloys. Teaching responsibilities include graduate courses on mechanical metallurgy, micro-mechanics of multi-phase materials, and undergraduate courses in finite element analysis and dynamics. Bardelcik collaborates with the Stronach Center for Innovation (University of Toronto) on hot stamping education and industrial applications.

• Metal Forming Processes
• Advanced High-Strength Steels
• Finite Element Modeling
• +5 more

Stephan Reuter is a Full Professor in the Department of Engineering Physics at Polytechnique Montréal , holding the TransMedTech Research Chair in Plasma Medicine . His work bridges plasma physics, biomedicine, and environmental technology through advanced diagnostics and interdisciplinary applications. Education: Dipl. Phys.-Ing. (Master in Engineering Physics), Dipl. Phys. (M.Sc. in Physics), Dr. rer. nat. (PhD) Affiliations: TransMedTech Institute, Institute of Biomedical Engineering, Alexander von Humboldt Foundation Alumnus Research Interests: Non-thermal plasma physics, plasma medicine, ultrafast laser diagnostics, plasma-liquid interactions, environmental remediation His 15 most recent publications (2022-2025) focus on cold atmospheric plasma jets for cancer therapy, agricultural sustainability, and microfluidic integration. These works span Plasma Medicine , Environmental Technology , and Advanced Diagnostics , with specific subfields like 3D tumor modeling, reactive oxygen species analysis, and precision plasma dosimetry. Scientific Leadership : Feodor Lynen Research Fellow (Princeton University, 2017-2018) Co-founder of Leibniz Institute's Plasma Medicine Group Editorial contributor to Plasma Sources Science and Technology Research Impact : Over 98 peer-reviewed journal articles Keynote speaker at ISPC26 (2025) Major grants: $3.4M for greenhouse plasma technology (2024), $1M NFRF Exploration Grant (2021) Labs & Collaborations : Polytechnique Montréal Plasma Biophysics Lab TransMedTech Institute International collaborations: Leibniz Institute (Germany), Queens University (UK), Lublin University (Poland)

• Plasma Physics
• Plasma Medicine
• Ultrafast Laser Spectroscopy
• +4 more