Samantha Gildersleeve is a Researcher at the Center for Flow Physics and Control (CeFPaC) within the School of Engineering at Rensselaer Polytechnic Institute. She holds a Ph.D. in Mechanical Engineering (2018) and a B.S. in Mechanical Engineering (2014) from Roger Williams University. Ph.D. in Mechanical Engineering, Rensselaer Polytechnic Institute (2018) B.S. in Mechanical Engineering, Roger Williams University (2014) Her research focuses on active flow control using piezoelectrically driven actuators and hybrid systems to manipulate laminar boundary layers, reduce flow separation, and enhance aerodynamic efficiency. She has contributed to studies involving low-aspect-ratio cylindrical pins and jet-assisted surface-mounted actuators, with applications in aerospace engineering. Samantha has authored multiple publications in journals like the AIAA Journal and presented at conferences including AIAA Aerospace Sciences and the American Physical Society meetings. Her work has been supported by The Boeing Company and recognized through prestigious fellowships. National Defense Science and Engineering Graduate (NDSEG) Fellowship (2016-2019) Boeing Scholarship (2015-2016) RPI Graduate Fellowship (2014-2015) 1st Place, National FAA Design Competition (2014) Alpha Chi National Honor Society (2012) She actively participates in the CeFPaC lab, which collaborates with aerospace industries, national laboratories, and government branches, providing cutting-edge resources for advancing flow control technology.
Woo Jin Chang is an Associate Professor in the Department of Mechanical Engineering at the University of Wisconsin–Milwaukee (UWM). His research focuses on bionanotechnology, bioMEMS, biosensors, and point-of-care devices for environmental and biomedical monitoring. He holds a PhD (2001) and BE (1994) in Biological Engineering from Inha University, South Korea. Education: PhD in Biological Engineering, Inha University (2001) BE in Biological Engineering, Inha University (1994) Research Interests: Dr. Chang’s work integrates nanotechnology and microfluidics to develop innovative diagnostic tools and environmental sensors. Key areas include dielectrophoretic trapping for cellular analysis, paper-based fluidic systems, and bioseparations. His lab emphasizes practical applications such as rapid pathogen detection and real-time cellular response monitoring. Awards: UWM Research Foundation Technology Licensing Award (2015, 2018) Interpore Rosette Award (2014) Advising & Grants: His research has been supported by grants focused on microfluidic device development and biosensor innovation. Collaborations include work with institutions like the University of Illinois and InterPore. Labs/Teams: His lab focuses on bionanotechnology and bioMEMS, with expertise in microfluidic device fabrication and biosensor integration.
Qian Wang is a Researcher at the Department of Energy and Process Engineering, Faculty of Engineering, Norwegian University of Science and Technology (NTNU). Their research focuses on combustion diagnostics, laser-based measurement techniques, and advanced imaging systems for fluid dynamics analysis. Key areas include soot characterization, flame tomography, and the development of cost-effective diagnostic tools. Research interests encompass combustion kinetics, thermometry, and particle dynamics, with applications in propulsion systems and material science. Recent work emphasizes the use of machine learning and deep learning for data-driven diagnostics, particularly in turbulent combustion environments. Publications highlight innovations in volumetric reconstruction, time-resolved imaging, and optimization of optical systems under constrained conditions. No scientific awards are mentioned in the provided text. Qian’s work involves collaboration with engineering teams to advance combustion diagnostics through interdisciplinary approaches, though specific grants or advising roles are not detailed here.
Prof. Alexander Gelfgat is a faculty member at the School of Mechanical Engineering , part of the Faculty of Engineering at Tel Aviv University . His research focuses on hydrodynamic stability , bifurcations , flow control , and computational fluid dynamics (CFD) , particularly in crystal growth , MHD , and high-performance computing contexts. Research Interests: Hydrodynamic stability and bifurcations Convection and rotating flows Shear layer dynamics Moving boundary tracking Crystal growth and melt flow His work spans three-dimensional flow instabilities , with applications to Czochralski crystal growth , Dean flows , and two-phase stratified channels . Recent studies emphasize non-modal disturbances and quasi-two-dimensional flow projections for enhanced visualization. Prof. Gelfgat has advised notable researchers including Yuri Feldman and Helena Vitoshkin . His publications address critical challenges in boundary layer instability , cross-flow wave propagation , and pressure-velocity coupled formulations for lid-driven flows in complex geometries.
Kjeld Svidt is an Associate Professor at the Department of the Built Environment , Faculty of Engineering and Science , Aalborg University , where he serves as the Head of the Construction Management and Building Informatics Research Group . His academic career spans decades, focusing on Building Information Modeling (BIM) , Virtual Reality , and Digitalization in Construction . Role: Associate Professor and Research Group Leader Department: Built Environment University: Aalborg University His research emphasizes integrating digital technologies into construction, including Virtual Design and Construction (VDC) and Hybrid Ventilation Systems . He leads projects like DDD Green (2022–2025), promoting sustainability, and IFC-modelserver (since 2004), enhancing data interoperability. His work bridges academic innovation with industry applications . Recent publications highlight Digital Twins for HVAC optimization and fault detection , leveraging machine learning and multiobjective algorithms . Awards include the Energy and Buildings Best Paper Award (2023) and The Chair's Award for Best Paper Presentation (2020). Projects: DDD Green, IFC-modelserver, Hybrid Ventilation Dataset: Danish high-resolution office building monitoring (2023) Media Mentions: Over 43 instances (2019–2023), including student-led construction initiatives
Jakob Mann is a Professor at the Department of Wind and Energy Systems , Technical University of Denmark. His research focuses on Wind Energy , Remote Sensing , and Atmospheric Turbulence , with applications in Offshore Wind Engineering and Micrometeorology . UN SDG Contributions : Renewable Energy (SDG 7), Climate Action (SDG 13) Recent Research Trends (based on 15 most recent publications): Wind turbine wake dynamics in complex terrain Improving turbulence measurements via advanced LiDAR configurations Offshore wind resource characterization and load modeling Micrometeorological studies of forest-edge and tree-scale wind interactions Supervision Activities Main supervisor for 4 active PhD projects (2023-2028) Co-supervisor in 3 additional PhD programs 26+ conference presentations including invited lectures Labs & Collaborations DTU Wind Energy (Roskilde, Denmark) Wind Energy Systems Division International collaborations in 12+ countries Leadership in 5 active research consortia
David S. Ebert is the Silicon Valley Professor of Electrical and Computer Engineering at Purdue University, and an IEEE Fellow. He serves as Director of the Purdue University Regional Visualization and Analytics Center (PURVAC) and the Purdue University Rendering and Perceptualization Lab (PURPL). His research focuses on visualization, visual analytics, computer graphics, medical visualization, and volumetric displays. Ebert has authored textbooks such as Texturing & Modeling: A Procedural Approach and led grants including NSF-funded projects on volumetric visualization and volumetric displays. His work spans interactive visualization systems for fluid dynamics, stereoscopic visualization techniques, and procedural modeling for gases and fluids. Awards include the IEEE Fellow distinction. He advises students in visualization-related fields and maintains active roles in academic committees and conferences.
Christophe Brun is an Associate Professor at Laboratoire des Écoulements Géophysiques et Industriels (LEGI) , Université Grenoble Alpes, specializing in geophysical fluid dynamics and turbulence modeling. His research focuses on katabatic winds, atmospheric boundary layers, and Görtler instability through field experiments and numerical simulations. Key Research Areas: Katabatic Flow Dynamics Large Eddy Simulation (LES) Stably Stratified Turbulence Mountain Meteorology Recent Publications (2024): Analysis of turbulent boundary layers in alpine katabatic flows Wave turbulence evidence and Bolgiano spectra 3D velocity measurement techniques Technical Affiliation: Member of the MEIGE team at LEGI, working with advanced rotating platforms like Coriolis for geophysical flow experiments.
Chengyu Li is an Associate Professor in the Department of Mechanical and Aerospace Engineering at Case School of Engineering, Case Western Reserve University. His research program focuses on developing computational models to investigate the underlying flow physics and transport phenomena associated with biological and biomedical flows. Dr. Li received his PhD in Mechanical & Aerospace Engineering from the University of Virginia in 2016, following an M.S. from the same institution in 2014. He completed his undergraduate education with a B.S. in Mechanical Engineering from Dalian Jiaotong University, China, in 2010. Prior to joining Case Western, he served as an Assistant Professor at Villanova University from 2018 to 2024 and completed a postdoctoral position at The Ohio State University (2016-2018). Dr. Li's research spans multiple areas of fluid dynamics with applications in both engineering and healthcare. His work integrates computational fluid dynamics, immersed boundary methods, and high-performance computing to address complex problems in biological locomotion and biomedical flows. Specific research foci include: Bio-inspired propulsion mechanisms, studying how biological systems like insects and ctenophores achieve efficient locomotion Human nasal airflow dynamics, with applications to understanding and treating conditions like empty nose syndrome Fluid-structure interaction in flapping flight, examining how wing flexibility affects aerodynamic performance Odor-guided navigation, investigating how insects balance aerodynamic performance with olfactory sensitivity Analysis of Dr. Li's publication record reveals a strong interdisciplinary approach that bridges fundamental fluid dynamics with practical applications. His recent work shows increasing focus on the intersection of fluid dynamics and sensory biology, particularly how insects use airflow information for navigation. He has maintained a consistent research program in biomedical flows, with particular attention to nasal airflow and its clinical implications across multiple conditions including empty nose syndrome, nasal septal perforation, and olfactory sensitivity. Dr. Li has received several prestigious awards recognizing his research excellence: Young Investigator Program (YIP) Award 2024 from AFOSR Lewis F. Moody Award 2022 from ASME Faculty Early Career Development Program (CAREER) Award 2021 from NSF Ralph E. Powe Junior Faculty Enhancement Award 2019 from ORAU Polak Young Investigator Award 2017 from AChemS Dr. Li leads the Flow Simulation & Flow Physics Lab, where he mentors students in computational fluid dynamics research. His work has been supported by multiple grants including AFOSR FA9550-11-1-0058, AFOSR FA9550-12-1-007 monitored by Dr. Douglas Smith, and NSF CEBT-1313217. He collaborates extensively with researchers across disciplines, including Tyson Hedrick (UNC Chapel Hill), Kai Zhao (OSU), and Haibo Dong (UVa). Dr. Li actively contributes to the academic community through service roles including CFDTC Vice Chair (2024-2026) and Secretary (2022-2024) for ASME, and as a member of the Division of Fluid Dynamics at APS since 2011.
Dr. Ryan Palmer is a Lecturer in the School of Engineering Mathematics and Technology at the University of Bristol. His expertise spans fluid dynamics, industrial modeling, mathematical biology, numerical methods, and asymptotic methods. He holds a PhD and MMath, with research focusing on the interplay between fluid mechanics, electrostatics, and biological systems. His research interests include the mechanics of fluid-body interactions, electrostatic sensing in arthropods, and the dynamics of boundary layers. Notable contributions involve modeling floral and arthropod electrostatics, aerodynamic impacts on liquid surfaces, and the theoretical analysis of mechanoreceptor arrays in arthropods. Palmer’s work bridges mathematical modeling with real-world applications, such as understanding environmental sensing mechanisms in arthropods and optimizing industrial fluid systems. His recent publications explore topics like nonlinear shear flow dynamics, skimming impacts on shallow liquids, and particle trajectory analysis in ice crystal conditions. While no specific grants or awards are listed, his research demonstrates a strong focus on interdisciplinary applications of mathematical and fluid dynamics principles.
Jose Roberto Moreto is an Assistant Teaching Professor in the Electrical and Computer Engineering department at Rice University . His research focuses on experimental fluid mechanics, turbulence, and flow visualization techniques, with a particular emphasis on pressure field reconstruction and biomedical sensor development. He is also affiliated with the broader College of Engineering at Rice. His work spans disciplines including fluid dynamics, aerospace engineering, and environmental engineering, leveraging advanced methods like Particle Image Velocimetry (PIV), Schlieren imaging, and microfluidic systems. Recent studies include investigations of hypersonic flow interactions, bubble dynamics, and non-intrusive pressure measurements in complex fluid environments. Notable contributions include the development of epidermal biosensors for sweat analysis and advancements in wind tunnel flow quality assessment. His research often bridges theoretical fluid dynamics with practical applications in environmental monitoring and biomedical diagnostics. No scientific awards or grants are explicitly listed in the provided materials. Advising details are not available, but his publications reflect a strong focus on collaborative experimental research in fluid mechanics and sensor technology.
Kevin Connington is a Teaching Professor in Mechanical Engineering at Stevens Institute of Technology's Charles V. Schaefer, Jr. School of Engineering and Science. His computational research explores multiphase systems using lattice Boltzmann methods. Core research areas: Fluid-particle interaction mechanics Interfacial phenomena in complex fluids Parallel computing implementations Wetting dynamics on engineered surfaces Publications demonstrate methodological advances in modeling emulsions, particle-laden flows, and suspension dynamics. Recent work examines shear-induced assembly of anisotropic particles and droplet impact physics. Connington serves as reviewer for leading fluid mechanics journals and contributes to departmental lab development committees.
Dr. Ram Balachandar is a Distinguished University Professor in the Department of Civil and Environmental Engineering at the University of Windsor's Faculty of Engineering. He holds a BEng in Mechanical Engineering and a PhD in Civil Engineering. His research focuses on fluid dynamics phenomena such as fluid-structure interaction, hydraulic structures, open channel flow dynamics, and turbulence characterization. He is affiliated with the International Association of Hydraulic Research, Canadian Society of Civil Engineering, and CFD Society of Canada. Key research areas include wake dynamics, turbulent boundary layer interactions, and flow behavior around bluff bodies. His work combines experimental and computational methods, with recent studies exploring self-oscillating jets, aspect ratio effects in open channels, and turbulence preservation mechanisms. Over 12+ peer-reviewed publications since 2021 reflect his expertise in fluid mechanics and hydraulic engineering. He leads research groups investigating fluid dynamics applications in environmental and civil engineering contexts, with notable contributions to understanding secondary currents in open channels and flow characteristics around submerged obstacles. His work has been highlighted in journals like Physics of Fluids and Journal of Fluid Mechanics. Active in advancing CFD methodologies, he collaborates on projects like the 3D Printed Housing initiative under the department's special projects. His research integrates laboratory experiments with numerical simulations to solve real-world hydraulic challenges.
Shaaban Abdallah is a Professor in the Department of Aerospace Engineering & Engineering Mechanics at the University of Cincinnati. His research focuses on fluid mechanics, computational fluid dynamics, and turbomachinery flow analysis. He has led or collaborated on federal and industry-funded projects, including studies on hybrid propulsion systems and wind turbine optimization. Notable grants include the $27.5M Ohio Department of Development project on propulsion systems (2008–2013) and multiple General Electric Aviation collaborations. His work spans aerodynamic design, turbulence modeling, and fluid-structure interaction, with over 50 peer-reviewed publications. Recent research includes advancements in Savonius wind turbine efficiency, supersonic flow simulation, and UAV propulsion systems. Education details are not explicitly stated, but his career spans over four decades, with contributions to both academia and industry. He has advised on projects involving heart valve fluid dynamics, morphing UAVs, and micro-pump design. Key collaborations include partnerships with the Department of the Air Force and General Electric. His lab work includes developing novel compressor designs and exploring hybrid propulsion technologies. Research interests are anchored in solving complex fluid dynamics problems with applications in aerospace and energy sectors. His recent publications (2019–2025) highlight innovations in numerical methods for incompressible flows, wind energy systems, and supersonic turbulence modeling.
Melany L. Hunt is the Dotty and Dick Hayman Professor of Mechanical Engineering at the California Institute of Technology (Caltech), holding academic appointments since 1988. She earned B.S., M.S., and Ph.D. degrees from the University of Minnesota (1983) and University of California (1985, 1987). Her roles include Vice Provost (2007–2014) and Executive Officer (2002–2007). Her research focuses on multiphase flows, granular dynamics, and fluid-particle interactions. Key research areas include rheological measurements of liquid-solid suspensions, particle collisions in viscous fluids, and booming sand dune acoustics. Her experimental and computational work bridges fluid mechanics and granular physics, with applications in energy systems and geophysics. Notable awards include the Feynman Prize for Excellence in Teaching and the CCID Agent of Change Award. Her lab investigates segregation in granular mixtures, wave propagation in dunes, and robotic locomotion. She advises over 15 graduate students and postdocs, many now leading academic and industry roles. Courses taught include advanced thermodynamics, heat transfer, and systems engineering.
