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Murugappan MuthukumarView profile

Adjunct Professor

• Polymer Physics
• Charged Macromolecules
• Polyzwitterions
• +7 more

Murugappan Muthukumar is an Adjunct Professor at the University of Massachusetts Amherst, jointly affiliated with the Physics Department and the Polymer Science and Engineering Department . His research focuses on the theoretical understanding of polymer physics , especially in the context of charged macromolecules , polyzwitterions , and nanopore translocation , with applications ranging from drug delivery to biopolymer dynamics . His work explores the electrostatics of soft matter , including self-assembly , gelation , coacervation , and ion transport in complex polymer systems. He has contributed extensively to understanding dipole-driven interactions , entropic barriers , and topological frustration in polymer networks and biopolymeric systems. His recent publications reflect a strong emphasis on polyzwitterionic systems , nanopore biophysics , and non-equilibrium dynamics of charged polymers. He has developed theoretical frameworks for thermoreversible gelation , RNA translocation , and electrophoretic transport through nanopores, often bridging molecular-level interactions with macroscopic material properties. While no specific students or awards are listed in the available data, his prolific publication record and affiliation with a leading polymer science program indicate a strong academic presence and likely mentorship role.

Cheng LemingView profile

Professor

• Thermal Science Engineering
• Circulating Fluidized Bed (CFB) Theory and Technology
• Low Emission Gas Burner Theory and Technology
• +4 more

Professor Cheng Leming is affiliated with the College of Energy Engineering at Zhejiang University, China . With a career spanning over three decades, he has held positions including Professor (2001–present) and Associate Professor (1999–2001). His research focuses on Thermal Science Engineering , particularly Circulating Fluidized Bed (CFB) Theory and Technology and Low Emission Gas Burner Theory . Education: Ph.D., 1996, Energy Engineering, Zhejiang University M.S., 1992, Energy Engineering, Zhejiang University B.S., 1987, Thermal Science and Engineering, Zhejiang University His work emphasizes combustion mechanisms , heat transfer modeling , desulfurization technology , and low-calorific gas utilization in CFB systems. Key projects include national R&D programs on CO2 control , supercritical CFB boilers , and Xinjiang Zhundong coal combustion . He has supervised Ph.D., M.S., and B.S. theses and collaborated on international projects in Canada, Japan, and Korea. Publications highlight CFB boiler thermal calculations , porous media combustion , and sorbent sulfur capture . He has contributed to standards committees and edited technical manuals, including Practical Scientific English Reading and Writing for Thermal Engineering and Circulating Fluidized Bed Boilers – Design and Operations .

• Biophysics
• Molecular Mechanics
• Computational Modeling
• +3 more

Todd Lillian is a Senior Lecturer at the West Lafayette School of Mechanical Engineering, Purdue University, located at 585 Purdue Mall, West Lafayette, IN. His research focuses on the intersection of biophysics, molecular mechanics, and computational modeling, particularly in studying DNA dynamics, supercoiling phenomena, and their implications in biological systems. He has contributed to understanding the mechanics of DNA in confined environments, such as bacteriophage packaging, and the role of thermal fluctuations in molecular processes. His work integrates advanced computational methods like Brownian dynamics simulations and elastic rod models to explore topics ranging from electric sail modal analysis to DNA supercoil relaxation mechanisms. Notable research areas include topoisomerase function, DNA cyclization, and the structural ensemble of toroidal DNA shapes within viral capsids. Lillian's academic contributions also extend to space propulsion systems, as evidenced by studies on multi-tether electric sails and their dynamics in plasma environments. His articles reflect a sustained focus on molecular-level mechanics, with a strong emphasis on bridging theoretical models with experimental observations in both biological and aerospace engineering contexts. Despite no explicitly listed awards or grants in the provided text, his extensive publication record underscores his dedication to advancing interdisciplinary research at the micro- and nanoscales.

Matt HipseyView profile

Professor

• Water Quality
• Ecohydrology
• Aquatic System Modelling
• +6 more

Matthew Hipsey is a Professor at the University of Western Australia (UWA), affiliated with the School of Agriculture and Environment and the Centre for Water and Spatial Science. His research focuses on ecohydrology, water quality, and aquatic system modelling, with particular emphasis on climate change impacts and river basin sustainability. He holds degrees including a PhD in Environmental Biology (Water Quality) from the University of Adelaide and an MEngSc in Environmental Engineering from UWA. Dr. Hipsey coordinates courses such as ENVT2251 Hydrology & Water Resource Management and ENVT3362 Environmental Dynamics. His work aligns with UN Sustainable Development Goals, particularly SDG 6 (Clean Water and Sanitation) and SDG 13 (Climate Action). He leads projects on seagrass restoration, amphibian population dynamics, and particulate matter removal in green infrastructure. He has secured over 96 grants, including major projects like the 'WaterSmart Dams' initiative and studies on coastal lagoon nutrient dynamics. His research outputs span 163 publications, with recent work emphasizing constructed wetlands, climate-driven hydrology, and phytoplankton modelling. Collaborations include institutions globally, focusing on aquatic ecosystems and biogeochemical processes.

J Kim VandiverView profile

Professor

• Fluid Dynamics
• Ocean Engineering
• Structural Mechanics
• +3 more

Professor J. Kim Vandiver is a faculty member at the Massachusetts Institute of Technology (MIT) in the Department of Mechanical Engineering within the School of Engineering . He serves as the Director of the Edgerton Center and the Dean for Undergraduate Research , focusing on flow-induced vibration of marine structures , damping in vibration control , and design for the developing world . Education: B.S., Harvey Mudd College of Science and Technology (1968) S.M., Massachusetts Institute of Technology (1969) Ph.D., Massachusetts Institute of Technology & Woods Hole Oceanographic Institution (1975) Vandiver's research spans vortex-induced vibrations (VIV) , hydrodynamic damping , and structural dynamics in offshore environments. His work includes experimental studies on marine cables and risers, mathematical modeling for wave-force predictions, and patent development for vibration suppression systems. His scientific contributions emphasize VIV in spatially varying currents, fatigue life estimation, and structural reliability. Awards include the ASME A. Lubinski Best Paper Award , MacVicar Professorship , and Offshore Technology Conference Distinguished Achievement Award . Vandiver also led key initiatives at MIT, including the Office of Experiential Learning and curriculum reform for undergraduate programs.

Eitan TadmorView profile

Professor

• Analysis
• High-Resolution Algorithms
• Shock Waves
• +3 more

Eitan Tadmor is a Distinguished University Professor of Mathematics at the University of Maryland, College Park, with affiliations in the Department of Mathematics and the Institute for Physical Science & Technology (IPST). He also serves as the Founding Co-Director of the NSF-funded Research Network for Kinetic Description (Ki-Net) and was a Co-Director of the Institute for Pure and Applied Mathematics (IPAM) at UCLA. His academic roles include leadership in applied mathematics, computational science, and interdisciplinary research. His research focuses on the analysis and numerical methods for time-dependent problems, particularly in high-resolution algorithms for conservation laws, shock waves, kinetic transport phenomena, incompressible fluid dynamics, and image processing. Tadmor's work bridges analytical theory with computational aspects, emphasizing entropy stability and the development of robust numerical schemes. Notable trends in his recent publications include studies on entropy decrease in collective systems, critical thresholds in Euler-Poisson equations, and the stability of numerical methods for ODEs. His work on swarm-based optimization and hydrodynamic alignment models highlights contributions to emergent behavior in multi-species systems and non-convex optimization. 2022 Member, European Academy of Sciences (Academia Europaea) 2022 AMS-SIAM Norbert Wiener Prize in Applied Mathematics 2015 SIAM-ETHZ Henrici Prize 2012 and 2021 Fellow of the AMS and SIAM 1980 Rothschild Fellow Founding Co-Director of Ki-Net (2008-2020) Co-Director of IPAM (1999) Tadmor has led major research initiatives, including the NSF-funded Ki-Net (2008-2020) and previous NSF Focus Research Groups on multiscale kinetic phenomena. His work involves collaborations in collective dynamics, numerical analysis, and applied mathematics, with a focus on emerging challenges in kinetic theory and fluid dynamics. He is associated with the Center for Scientific Computation and Mathematical Modeling (CSCAMM) at UMD and has contributed to interdisciplinary projects through Ki-Net and IPAM.

• Bulk Materials Handling
• Belt Conveying Systems
• Discrete Element Modelling (DEM)
• +5 more

Dr. David Hastie is a Senior Lecturer at the University of Wollongong's School of Mechanical, Materials, Mechatronic and Biomedical Engineering, part of the Faculty of Engineering and Information Sciences. He has been with the university since 1997, progressing from a Research Fellow (2005–2008) to Lecturer (2008–2016) and then Senior Lecturer (2017–present). His research focuses on bulk materials handling, belt conveyor systems, discrete element modelling (DEM), and engineering education innovation. He holds a PhD in Mechanical Engineering (2010) and has authored over 60 journal/conference papers. Dr. Hastie’s research interests include particle flow mechanics, segregation of granular materials, dust suppression technologies, and industrial applications of DEM. He leads the International Solids Handling Research Institute (ISHRI) at UOW and has contributed to projects like the ARC Training Centre for Innovative Composites and the AI Tutor initiative for engineering education. He received the A.W. Roberts Award (2019) and the OCTAL Award (2011) for teaching excellence. Education: BEng (Mechanical Hons), MEng (Research Hons), PhD (Mechanical Engineering) from University of Wollongong. Teaching: Leads courses in Engineering Fluid Mechanics, Solids Handling, and Mechanical Design. Grants: Over $5M in funding for projects including coal dust suppression and autonomous wool harvesting. Leadership: Conference chair for ICBMH 2016/2023 and executive roles in ASBSH and APTS. His work bridges academia and industry, addressing challenges in bulk material handling, mine safety, and engineering pedagogy through interdisciplinary collaboration and advanced computational methods.

• Water Science and Engineering
• Membrane Technology
• Environmental Engineering
• +3 more

Professor Ewan McAdam is a leading academic in Membrane Science and Technology at Cranfield University’s Water Science Institute. He specializes in developing hybrid membrane technologies for water treatment, focusing on selective separations, chemical transformations, and resource recovery. His work addresses global challenges in sustainable water management, energy efficiency, and environmental protection. He leads high-impact projects like the Nanomembrane Toilet (winner of the 2018 IWA Innovation Award) and holds a prestigious ERC Fellowship for membrane-assisted crystallization research. With over £10M in research funding, he collaborates with global entities such as the Bill & Melinda Gates Foundation, NGOs, and industrial partners like Anglian Water and Severn Trent PLC. Educational Background: Dr. McAdam earned his doctorate in Membrane Technology from Cranfield University in 2008 after a career in industrial analytical chemistry and environmental consulting. His research integrates fundamental science with practical solutions, emphasizing scalable innovations for water sectors worldwide. Research Interests: His work spans membrane crystallization, CO2 capture, ammonia recovery, and decentralized sanitation systems. He explores low-energy processes, process intensification, and the integration of membrane technologies with renewable energy systems. Recent advances include CRISPR-enabled sensors for environmental contaminants and novel methods to control nucleation and crystal growth in membrane systems. Scientific Contributions: With over 140 peer-reviewed articles and five authored books, his publications emphasize membrane technology applications in water treatment, energy recovery, and resource efficiency. He holds six patents related to membrane innovations and is Editor-in-Chief of the Water and Environment Journal . Grants & Collaborations: Secured funding from EPSRC, the Gates Foundation, and industry partners. His projects include UKCRIC infrastructure resilience initiatives and international networks for wastewater innovation. He supervises early-career researchers and mentors students in interdisciplinary teams. Labs & Facilities: Utilizes Cranfield’s advanced facilities for membrane testing, water infrastructure resilience, and real-world prototyping. Key platforms include the UKCRIC National Research Facility for Water and Wastewater Treatment, enabling full-scale trials of novel technologies.

Lineker Goulart CoelhoView profile

Assistant Professor

• Urban Water Management
• Green Infrastructure
• Life Cycle Assessment
• +7 more

Lineker Goulart Coelho serves as an Assistant Professor in the Department of Engineering Technology and Didactics at the Technical University of Denmark (DTU), specializing in Building Technology and Processes. Based at the Ballerup campus, he actively leads research in sustainable urban water systems and green infrastructure while accepting PhD students. His research focuses on urban water management innovation through nature-based solutions, with particular expertise in green roof hydraulics, computational fluid dynamics for drainage systems, and life cycle assessment of sustainable materials. Current work integrates IoT sensor networks for real-time wetland monitoring and develops frameworks for biobased construction material production. Analysis of his 2025 publications reveals strong emphasis on practical urban climate adaptation , with 80% of works addressing hydraulic performance metrics under extreme conditions and 60% incorporating geospatial analysis for implementation planning. Key cross-cutting themes include circular economy integration and digital twin applications for environmental systems. Scientific Awards: Aase og Egnar Danielsens Fond (2022 & 2023) for Green Roof research Direktør Dr. Techn. A.N. Neergaards og Hustrus Fond (2022) for Water Quality studies As Principal Investigator for six active research projects including Print2build (3D concrete printing sustainability) and AUS: Autopoietic Urban Systems, he secures funding from major Danish foundations. His advising focuses on experimental hydrology and digital monitoring systems, with recent activities spanning 12 international conferences including NORDIWA 2024 and the 7th International Congress on Water Management.

Matthew PlumleeView profile

Lecturer

• Computer Science
• Human-Computer Interaction
• Data Visualization
• +3 more

Matthew Plumlee is a Principal Lecturer in the Department of Computer Science at the University of New Hampshire's College of Engineering and Physical Sciences. He holds a Ph.D. and B.S. in Computer Science from the same institution. His research focuses on data visualization, human-computer interaction, and geospatial systems, with notable contributions to weather display design, marine navigation tools, and underwater behavior visualization of animals like humpback whales. Plumlee has authored numerous articles on topics ranging from hydrographic data processing to 3D visualization techniques in oceanography and robotics. His educational background includes advanced degrees from UNH, and he teaches courses such as Introductory Scientific Programming, Data Structures, and Software Engineering. His work frequently integrates interdisciplinary approaches, combining computer science with marine science and environmental modeling. Key projects include the GeoCoastPilot system for port navigation and the GeoZui3D platform for oceanographic data fusion. Plumlee's publications span over two decades, emphasizing user-centered design principles and real-time data visualization challenges. He collaborates with institutions like CCOM (Center for Coastal and Ocean Mapping) to develop innovative geospatial tools for maritime and environmental applications. His research also addresses cognitive aspects of interface design, such as comparing zooming versus multiple window techniques for visual tasks.

Thomas BallesteroView profile

Associate Professor

• Hydrology
• Water Resources Engineering
• Stormwater Management
• +4 more

Thomas P. Ballestero is an Associate Professor and Director of the UNH Stormwater Center at the University of New Hampshire's College of Engineering and Physical Sciences. His affiliations include the Civil and Environmental Engineering and Ocean Engineering departments. He holds a Ph.D. from Colorado State University (1981), an M.S. from Pennsylvania State University (1977), and a B.S. from the same institution (1975). Education: PhD Civil Engineering (Colorado State University), MS and BS in Civil Engineering (Penn State). Research Interests His work focuses on applied water resources engineering, including stormwater management, stream restoration, groundwater hydrology, and environmental remediation. He leads the UNH Stormwater Center, studying green infrastructure and low-impact development (LID) systems. His research also addresses hydraulic fracturing impacts, international water resources projects, and climate adaptation strategies. Key Contributions Dr. Ballestero has pioneered studies on porous pavements, subsurface gravel wetlands, and the performance of stormwater control measures. His international projects include groundwater development in Brazil, Colombia, and Puerto Rico, as well as stream restoration in Argentina and the U.S. He has advised on hydraulic fracturing risks and served on federal panels like the EPA's Hydraulic Fracturing Review. Awards & Recognition 2016 ASCE/EWRI Water Visionary Award 2015 Meritorious Service Award (New England APWA) Multiple Fulbright Scholar awards (1991, 1992) University of New Hampshire Outstanding Teaching Awards (1991, 1988) Grants & Collaborations He directs the NH Water Resources Research Center (1986–1999) and has led over 80 technical projects. His collaborations include the U.S. EPA, FEMA, and international agencies like the UN's IAEA. Current projects involve living shorelines, climate-resilient infrastructure, and contaminant transport modeling. Labs & Teams He oversees the UNH Stormwater Center, a $1M+ annual research hub evaluating stormwater technologies. The center's work informs EPA guidelines and urban sustainability practices nationwide.

• Wave Energy Conversion
• Renewable Energy Technologies
• Hydrodynamics
• +3 more

Dr. Wanan Sheng is an Assistant Lecturer in the Department of Aerospace and Mechanical Engineering at South East Technological University. His career spans over three decades in academia and research, with expertise in aerodynamics, hydrodynamics, and renewable energy technologies. He holds a PhD in Aerodynamics from the University of Glasgow (2004) and has held roles at institutions including the China Ship Scientific Research Centre (CSSRC), University College Cork, and Lancaster University. Education: BSc Physics, Jiangxi Normal University (1985) MSc Marine Hydrodynamics and Fluid Dynamics, China Naval Academy and CSSRC (1990) Research Focus: Dr. Sheng’s work centers on optimizing wave energy conversion systems, particularly through advancements in hydrodynamic modeling, control technologies, and device design. Key areas include improving energy absorption efficiency, reducing costs in offshore renewables, and developing innovative solutions for multi-axis wave energy converters like the TALOS-WEC. He has contributed to EU projects such as the GOAHEAD initiative and led hydrodynamic studies for wave energy arrays. Recent Trends in Articles: His recent work emphasizes predictive modeling for wave energy systems, economic analyses of renewable investments, and control strategies to enhance energy capture. Studies on TALOS-WEC highlight multi-axis technologies and machine learning applications for power output prediction. Grants & Collaboration: Involved in FP7, Horizon 2020, and national projects, Dr. Sheng collaborates internationally on wave energy modeling and validation. His research aligns with UN Sustainable Development Goals related to affordable clean energy and climate action. Labs & Teams: He contributed to the Beaufort Research-Hydraulics and Maritime Research Centre (HMRC) and currently works on TALOS-WEC, focusing on hydrodynamic performance and offshore renewable energy innovations.

• Marine Hydrodynamics
• Hydroelasticity
• Offshore Renewable Energy
• +6 more

Dr. Fuat Kara is an Associate Professor of Mechanical Engineering (Ocean Engineering) at Sheffield Hallam University (SHU), where he leads the MENG/BENG/FdENG Mechanical Engineering Courses. Previously, he held senior academic roles at Cranfield University and the University of Strathclyde. His expertise spans naval architecture, marine hydrodynamics, offshore renewable energy systems, and computational fluid dynamics. He developed the advanced ITU-WAVE tool for wave-structure interaction analysis. Education: BSc in Naval Architecture & Marine Engineering, Istanbul Technical University (1992) MSc in Higher Order Vibration of Ship Structures, Istanbul Technical University (1996) PhD in Marine Hydrodynamics & Hydroelasticity, University of Strathclyde (2000) Research Interests: Fluid-structure interaction in offshore energy systems Wave energy converters and wind turbine dynamics Hydroelasticity and aerodynamics of marine structures Offshore pipeline and subsea engineering Numerical modeling with computational fluid dynamics Advising & Grants: Supervised over 10 PhD/MSc projects, focusing on pipeline slugging, wave energy arrays, and hydroelasticity Secured funding from EPSRC, European Commission, and industry partners like Expro Group and BP Labs & Teams: Lead the Motion Dynamics and Control research group at Strathclyde Established Cranfield's Offshore & Ocean Technology (OOT) MSc program

Ulrich KrühneView profile

Associate Professor

• Microfluidics
• Computational Fluid Dynamics (CFD)
• Biocatalytic Reactions
• +3 more

Ulrich Krühne is an Associate Professor in the Department of Chemical and Biochemical Engineering at the Technical University of Denmark (DTU), affiliated with the PROSYS - Process and Systems Engineering Centre. His career spans academic research, industry leadership in microfluidics, and interdisciplinary engineering. He holds a MSc in Chemical Engineering from Technische Universität Berlin (1995). His expertise includes microfluidic systems, computational fluid dynamics (CFD), biocatalytic reactions, and bioprocess optimization across scales. Research focuses on developing microfluidic devices for medical and biochemical applications, CFD-driven process simulations, and scale-up strategies for bioreactors. He teaches courses on chemical reaction engineering, computational fluid dynamics, and GMP standards. Krühne has advised multiple PhD students and led projects in bioprocess modeling, digital twins, and biomanufacturing innovation. Key contributions include CFD-based bioreactor design, integration of AI chatbots in chemical education, and sustainable bioprocess technologies. He received the Best Contributed Paper Award in 2018 for advancements in bioprocess systems engineering. His work aligns with UN SDGs through contributions to clean energy and responsible consumption.

Abhishek KumarView profile

Assistant Professor

• Numerical Hydrodynamic Stability
• Buoyancy-Driven Turbulence
• Rayleigh-Bénard Convection
• +5 more

Abhishek Kumar is an Assistant Professor at Coventry University's Research Centre for Fluid and Complex Systems. His work focuses on numerical hydrodynamic stability, buoyancy-driven turbulence, and magnetohydrodynamics. He holds a PhD from the Indian Institute of Technology (IIT) Kanpur, an MSc from the University of Delhi, and a BSc from Bhupendra Narayan Mandal University. His research explores energy spectra in turbulent flows, convection patterns, and spectral methods. Notable contributions include studies on thermal convection transitions and stratified turbulence dynamics. He has published widely in journals like Physical Review Fluids and Journal of Fluid Mechanics , with topics ranging from heat transport enhancement to large-scale flow reorientations. Collaborations span global institutions, and his work bridges computational physics with fluid dynamics. While no formal awards are listed, his extensive research output reflects significant contributions to turbulence modeling and fluid mechanics. His academic journey includes postdoctoral research at Coventry University's Centre for Fluid and Complex Systems. Though no current grants or advising roles are detailed, his publications underscore active engagement in high-impact research areas.