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Phil Trinh is a Reader (equivalent to Associate Professor) in the Department of Mathematical Sciences at the University of Bath, where he is also Co-Director of the EPSRC Centre for Doctoral Training in Statistical Applied Mathematics (SAMBa) and a member of the Centre for Nonlinear Mechanics. He is actively engaged in research and supervising doctoral students. His research spans applied mathematics and fluid mechanics, focusing on problems where classical perturbation methods fail. Key interests include exponential asymptotics, nonlinear differential equations, free-surface flows, wave-structure interactions, thin film dynamics, and elastocapillary systems. He develops advanced analytical and computational techniques to study singularly perturbed systems and interfacial phenomena. The recent publications highlight a strong trend in asymptotic analysis, interfacial fluid dynamics, and numerical modeling of complex physical systems. His work bridges pure and applied mathematics, with applications in environmental modeling, industrial processes, and fundamental fluid mechanics. Scientific Awards: Clarendon Scholar Darby Fellow at Lincoln College (2012–2016) Advising and Grants: Dr. Trinh supervises doctoral students and has led multiple research projects funded by major UK research bodies. His current and recent grants include projects with EPSRC, The Royal Society, Innovate UK, and collaborations with Heriot-Watt University and Wessex Water. These projects focus on flood modeling, exponential asymptotics in fluid mechanics, and industrially relevant mathematical models. Labs and Research Teams: He is affiliated with the Centre for Nonlinear Mechanics and plays a central role in the SAMBa CDT, fostering interdisciplinary training in statistical and applied mathematics. His work involves collaboration with applied mathematicians and engineers across institutions.

• Applied Mathematics
• Fluid Mechanics
• Exponential Asymptotics
• +7 more

Dr. Chris Batchelor-Mcauley is an Assistant Professor in the Department of Chemistry at Trinity College Dublin. He leads an active research group focused on electrochemistry, particularly in the areas of nano-electrochemistry, single entity detection, and environmental electrochemical sensing. His work bridges fundamental electrochemical theory with applications in marine biogeochemistry, sensor development, and nanoparticle analysis. His research interests include: Single nanoparticle and single cell electrochemistry Fluoro-electrochemical microscopy for marine phytoplankton analysis CO 2 sequestration and calcite dissolution kinetics Development of novel electrochemical sensors for environmental and biomedical applications Nanoparticle impacts and electrocatalysis Electrochemical analysis in complex media such as seawater and biological fluids His recent publications demonstrate a strong trend toward interdisciplinary research combining electrochemistry with marine science. Key themes include the electrochemical behavior of calcifying phytoplankton (coccolithophores), development of field-deployable ocean sensors, and understanding redox processes in natural systems. His group frequently employs advanced techniques such as single-entity electrochemistry, voltammetry, and fluorescence-electrochemical microscopy. Dr. Batchelor-Mcauley is affiliated with the Royal Society of Chemistry and the International Society of Electrochemistry. He maintains an active research program with numerous peer-reviewed publications in high-impact journals such as Chemical Science , Angewandte Chemie , ACS Sensors , and Environmental Science & Technology . He advises research students and collaborates extensively with scientists at the University of Oxford (particularly with Prof. Richard G. Compton) and other international institutions. His group website is mcauleygroup.net.

• Electrochemistry
• Nano-electrochemistry
• Single Entity Electrochemistry
• +12 more

Professor Hameed Metghalchi is a faculty member in the Mechanical and Industrial Engineering Department at Northeastern University, specializing in combustion and thermodynamics. He holds a Sc.D. from MIT (1980) and has been actively involved in research on laminar flame speed, combustion chemistry modeling via the Rate-Controlled Constrained-Equilibrium (RCCE) method, and non-equilibrium thermodynamics. His laboratory facilities include advanced equipment such as a spherical vessel for high-pressure experiments and a Planar Laser Induced Fluorescence (PLIF) system for combustion diagnostics. Metghalchi teaches courses like Thermodynamics (ME2380) and General Thermodynamics (ME2720), emphasizing axiomatic foundations and practical applications. His research group focuses on reducing complex chemical reaction systems using the RCCE method, with applications to hydrocarbon fuels and engine efficiency. He advises PhD students in combustion and thermodynamics, including Mohammed Janbozorgi (model reduction), Nicolas Ghassman (non-equilibrium combustion), and Zhaojin Diao (laminar flame speed experiments). Key contributions include studies on flame structure, autoignition, and exergy analysis. The Thermodynamics and Combustion Laboratory, led by Metghalchi, integrates experimental and theoretical approaches to advance energy systems and environmental engineering solutions.

• Combustion Chemistry
• Thermodynamics
• Laminar Flame Speed
• +3 more

Eddie Wadbro is a Visiting Professor at the Department of Computing Science , Umeå University. His research spans computational mechanics, acoustics, and machine learning, focusing on topology optimization and its applications in industrial design, forestry, and electromagnetics. He actively collaborates across disciplines to solve complex engineering challenges. Key Research Areas: Topology optimization, acoustic wave control, machine learning for industrial systems, fluid dynamics Recent Trends: Alzheimer's disease classification via morphological analysis, deep reinforcement learning for autonomous machinery, multiscale material design Collaborations: Works with experts in forestry engineering, electromagnetics, and biomedical imaging.

• Topology Optimization
• Computational Mechanics
• Acoustics
• +3 more

José Rubén Pérez Domínguez is a Collaborating Professor at the Technological Research Institute (IIT) of the Comillas Pontifical University, affiliated with the Department of Mechanical Engineering in the Higher Technical School of Engineering (ICAI). His work integrates academic research with industrial applications in energy systems, fluid mechanics, and thermal engineering. His research focuses on advanced energy technologies, particularly in Computational Fluid Dynamics (CFD) , numerical modeling , and thermal systems for renewable and nuclear applications. Key areas include solar thermal power plants, supercritical CO 2 power cycles, hydrogen technologies, and fire safety engineering. He uses simulation tools to analyze complex fluid and thermal behaviors in rotating flows, combustion, and energy conversion systems. The recent publications highlight a strong trend in innovative power cycles using supercritical CO 2 , hybrid solar energy systems, and thermal energy storage solutions like Carnot batteries. His work bridges theoretical modeling with practical design for next-generation energy infrastructure. No scientific awards were mentioned in the provided text. He has advised at least one doctoral thesis and has co-authored multiple journal articles with research groups in energy engineering. While specific grants are not listed, his involvement in advanced energy projects suggests active participation in funded research initiatives. His industrial background at Westinghouse and Empresarios Agrupados complements his academic role. Though no specific lab or research team is named, his affiliation with IIT and ICAI indicates collaboration within structured research environments focused on energy and thermal-fluid systems.

• Computational Fluid Dynamics
• Numerical Modeling
• Energy Engineering
• +7 more

D.J.E.M. Roekaerts is a Professor specializing in Mechanical Engineering with a focus on Fluid Mechanics and Combustion. His research centers on advanced combustion phenomena including flame dynamics, spray combustion, and multiphase reacting flows, utilizing high-fidelity computational methods to model complex combustion systems under extreme conditions. His primary research interests span Combustion, Fluid Mechanics, Flames, and Sprays, with emphasis on transcritical multiphase combustion, radiative heat transfer effects, and ignition processes in hydrogen and dual-fuel systems. Roekaerts employs computational techniques like Direct Numerical Simulation (DNS) and Large Eddy Simulation (LES) to investigate fundamental combustion mechanisms across diverse applications from propellant combustion to alternative fuel systems. Recent publications (2023-2025) reveal a concentrated research trajectory in high-pressure combustion phenomena, real-fluid thermodynamics, and advanced modeling of reacting sprays. Key themes include the interaction of radiative transfer with flame propagation in aerosols, transcritical multiphase combustion modeling, and development of efficient reduced-chemistry approaches for complex fuel systems. Roekaerts has supervised 19 research works, demonstrating significant mentorship contributions in combustion engineering and fluid dynamics, while maintaining active editorial roles including service as editor for Combustion and Flame and Torus Press Ltd.

• Combustion
• Fluid Mechanics
• Flames
• +3 more

Artem Nikulin is a Researcher specializing in thermal energy storage and phase change phenomena, currently contributing to research groups focused on critical behaviors in heat transfer systems. His work bridges fundamental thermodynamics with practical energy applications through advanced material engineering. Education: MSc in Thermal Physics, Odessa State Academy of Refrigeration, Ukraine (2011) PhD in Technical Thermal Physics and Industrial Heat and Power Engineering, Odessa National Academy of Food Technologies, Ukraine (2015) His research centers on nanotechnology-enhanced thermal systems, with primary focus on phase change materials and nanofluids for energy storage. Key investigations include: Thermophysical property characterization of complex liquids (nanofluids, refrigerant/oil mixtures) Pool boiling optimization via surface engineering and geometric configurations Electric-field-controlled crystallization in phase change media Thermal conductivity enhancement through carbon nanostructures Recent publications (2021) reveal strong experimental emphasis on heat transfer enhancement, particularly through nanostructured materials and geometric modifications to boiling surfaces. His work demonstrates consistent innovation in thermal management for photovoltaic systems, shape-stabilized phase change materials, and refrigeration cycles, with significant contributions to understanding nanoparticle effects in single/two-phase flows. Dr. Nikulin collaborates extensively across European institutions, evidenced by co-authorship with researchers from Portugal, Spain, and France. His current team focuses on phase transitions critical to next-generation thermal energy storage, targeting industrial heat processes and power generation applications through interdisciplinary approaches combining materials science and thermal engineering.

• Heat Transfer
• Thermodynamics
• Nanotechnology
• +3 more

Nicholas Harmer is an Associate Professor in Biochemistry at the Living Systems Institute , University of Exeter, UK. He specializes in enzymology , protein structure , and enzyme cascades for applications in vaccine development , drug manufacture , and green chemistry . His work bridges structural biology and biotechnology, focusing on microbial sugar molecules and their roles in antimicrobial resistance and sustainable industrial processes. PhD in Biochemistry (2000-2004), University of Cambridge Postdoc in Biophysics (2003-2006), University of Cambridge Industry experience at AstraZeneca (2006-2007), Sweden Academic career at University of Exeter (2007-present) His research explores enzyme catalytic cycles using time-resolved structural biology and synchrotron techniques , aiming to capture transient states in cryptochrome magnetoreception and archaellum function . He leads the Harmer Group , collaborating with postdocs and PhD students on projects related to biofilm dynamics , phage interactions , and microbial systems biology . The 15 most recent publications span enzyme mechanisms , microbial physiology , structural biology , and quantum biophysics . Key trends include studies on radical pair magnetoreception , enzyme cascades , bacterial motility , and antimicrobial resistance . His work aligns with UN Sustainable Development Goals 3 (Health) , 9 (Innovation) , and 12 (Sustainable Production) . Students in his group include Postdoc Anil Jamithireddy and PhD candidates Courtney Tremlett , William Stuart , Freddie Moore , and Zhaorui Gu . He is affiliated with the Biochemistry, Chemical Biology and Structural Biology and Microbes and Disease research groups at Exeter.

• Enzymology
• Protein Structure
• Structural Biology
• +5 more

Michel Géron is a Professor at the Central School of Lyon, affiliated with the Fluid Mechanics and Acoustics Laboratory (UMR 5509). He is part of the Complex Fluids and Transfers research team within the laboratory's structure. His research focuses on fluid mechanics and acoustics, with particular interest in complex fluid behavior and heat transfer phenomena. The laboratory maintains strong connections with multiple academic institutions in the Lyon area, contributing to interdisciplinary research in fluid dynamics. Based at the Central School of Lyon campus in Écully, a suburb of Lyon, France, Professor Géron works within a collaborative research environment that includes multiple specialized teams focusing on different aspects of fluid mechanics and acoustics.

• Fluid Mechanics
• Acoustics
• Complex Fluids
• +1 more

Diego Lopez is a Lecturer at National Institute of Applied Sciences Lyon (INSA Lyon), affiliated with the Laboratory of Fluid Mechanics and Acoustics (LMFA-UMR 5509). He teaches Physics in the Undergraduate Department at INSA Lyon, responsible for tutorials and practical work in Mathematical Tools for Engineering Sciences (OMSI), Optical Measures, Electrokinetics, and Mechanical Electromagnetism. His research focuses on fluid-structure interaction problems with ecological and biological applications. Key research themes include: Transport of floating materials in environmental hydrodynamics Sedimentation of anisotropic particles in turbulent flow Bacterial locomotion near complex interfaces Reconfiguration strategies of plants under fluid flow Dr. Lopez completed his doctoral research at École Polytechnique ParisTech with his 2012 thesis "Modeling reconfiguration strategies in plants submitted to flow." As a member of the Environment Team (EE) within LMFA's Complex Fluids and Transfers Group, he develops simplified models to identify fundamental mechanisms driving complex fluid-structure interactions in natural systems.

• Fluid Mechanics
• Fluid-Structure Interaction
• Environmental Hydrodynamics
• +3 more

Srisharan Shreedharan is an Assistant Professor in the Department of Geomechanics and Geophysics at Utah State University. His research focuses on earthquake dynamics, fault mechanics, and subduction zone processes, with collaborations at the University of Texas at Austin. Institution: Utah State University Role: Assistant Professor Research Areas: Fault healing, slow slip events, frictional behavior, earthquake nucleation, seismic cycle dynamics His recent work explores the interplay between lithology, stress perturbations, and frictional properties in laboratory fault simulations. He employs active seismic monitoring, ultrasonic imaging, and machine learning to predict earthquake timing and rupture evolution. Key trends in his publications include experimental investigations of meter-scale faults, collaborations on subduction zone studies (e.g., Hikurangi margin), and integration of numerical modeling with lab experiments. Topics span from critical slip distance scaling to acoustic emission analysis during stick-slip events.

• Geomechanics
• Geophysics
• Fault Mechanics
• +3 more

Lyudmyla F Barannyk serves as an Associate Professor in the Department of Mathematics and Statistical Science within the College of Science at the University of Idaho. Her academic career spans over two decades with a focus on computational mathematics and interdisciplinary engineering applications. Her educational background includes: PhD in Mathematical Sciences (2003) from New Jersey Institute of Technology and Rutgers, State University of New Jersey MS in Applied Mathematics (2000) from New Jersey Institute of Technology BS and MS in Mathematics, Mathematical Physics, Teaching in Mathematics and Computer Science (1994) from Kharkiv National University, Ukraine Dr. Barannyk's research centers on Numerical Analysis and Partial Differential Equations, with significant contributions to phase change problems (particularly the Stefan problem with internal heat generation), interfacial fluid dynamics, and computational modeling of thermoelectric materials. Her work bridges mathematical theory with practical engineering challenges in thermal systems, materials science, and high-speed electronics. She has developed specialized numerical methods including Fourier-Bessel series expansions and causality enforcement techniques for electromagnetic applications. Analysis of her 2015-2024 publications reveals a strong interdisciplinary trajectory connecting mathematical physics with engineering disciplines. Her thermal modeling research consistently addresses complex geometries (cylindrical, spherical) and boundary conditions, while her signal processing work focuses on time-domain analysis for high-speed interconnects. This dual focus demonstrates exceptional versatility in applying advanced mathematical techniques to diverse physical phenomena. No specific scientific awards were documented in the source material. While her publication record indicates collaborative research, details regarding graduate student advising, research grants, or laboratory facilities were not provided in the available information. Her work appears to involve significant cross-disciplinary collaboration between mathematics, materials science, and electrical engineering departments.

• Numerical Analysis
• Partial Differential Equations
• Computational Fluid Dynamics
• +4 more

Pietro De Palma serves as a Full Professor in the Department of Mechanics, Mathematics & Management at the Polytechnic University of Bari, Italy. His research focuses on fluid machinery systems with applications spanning hydrogen propulsion, renewable energy conversion, and fundamental fluid dynamics. Contact details include email pietro.depalma@poliba.it and office phone +39 080 596 3226 at Via Orabona 4, Bari. His primary research domains encompass Fluid Dynamics , Combustion Engineering , and Turbomachinery , with specialized expertise in hydrogen engine combustion phenomena, wind turbine aerodynamics, and thermal management systems. Recent work investigates lubricant oil interactions in hydrogen engines, Coriolis effects on wind turbine wakes, and stability mechanisms in transitional channel flows. He employs advanced computational methods including Large Eddy Simulation (LES), Reynolds-Averaged Navier-Stokes (RANS), and Dynamic Mode Decomposition (DMD) for complex fluid-structure interactions. Analysis of his 15 most recent publications (2024-2026) reveals three dominant research thrusts: (1) Hydrogen propulsion systems addressing pre-ignition mechanisms and combustion characterization, (2) Wind energy optimization focusing on wake dynamics and floating platform simulations, and (3) Fundamental fluid mechanics exploring coherent structures in turbulent flows. His work consistently bridges theoretical fluid dynamics with practical energy system challenges, particularly in decarbonization technologies. No scientific awards were documented in the provided sources. While student advising details are unavailable in the scraped materials, his extensive publication record indicates active mentorship in mechanical engineering research. No specific grant information appears in the sources, though his involvement in projects like PONa3_00372 'Innovative Processes for Energy Conversion–PrInCE' suggests competitive funding acquisition. Research activities appear centered within the university's Department of Mechanics, Mathematics & Management, with collaborations evident in wind energy and combustion studies through co-authored publications. His work connects with international initiatives like the IEA Wind Task 32 on wind turbine wake behavior.

• Fluid Dynamics
• Combustion Engineering
• Turbomachinery
• +3 more

Dr Jennie Gilbert is a Senior Lecturer at the Lancaster Environment Centre , Lancaster University. With 25 years of fieldwork experience, she specializes in volcanic ash properties, ash transport dynamics, and volcano-ice interactions from eruptions in Japan, Chile, and Iceland. BSc Geology, Royal School of Mines, Imperial College London PhD Geochemistry & Volcanology, University of Cambridge Research Interests: Focus on volcanic ash aggregation mechanisms, subglacial eruption physics, and using volcanic facies to reconstruct paleoclimate conditions. Her work bridges terrestrial and Martian volcanology through experimental and field studies. Key Article Trends: Includes experimental chambers for volcanic plume analysis (2022), ice melt dynamics during eruptions (2016-2022), and comparative studies on Earth and Mars (2014). Awards: Senior Fellow of the Higher Education Academy, Fellow of the Geological Society, and Associate of the Royal School of Mines. Teaching & Leadership: Director of NERC Envision Doctoral Training Partnership, module convenor for environmental geoscience courses, and active in curriculum development. Supervises postgraduate students and mentors undergraduates in field methods.

• Volcanology
• Volcanic Ash Aggregation
• Experimental Volcanology
• +3 more

Fabian Denner is an Associate Professor at the Department of Mechanical Engineering, Polytechnique Montréal. His work focuses on modeling multiphase flows and related physical phenomena, including cavitation, acoustic wave dynamics, and high-performance computing (HPC). He develops advanced numerical methods and software tools for simulating incompressible and compressible flows, with applications in medicine, chemical engineering, and aerospace. His research group addresses challenges in predicting cavitation effects, liquid jet breakup, and acoustic modulation in accelerating flows. Education Dipl.-Eng. in Automotive Engineering, University of Stuttgart (2009) Ph.D. in Mechanical Engineering, Imperial College London (2013) Research Interests His expertise spans: Numerical modeling of multiphase flows Acoustic wave propagation and modulation Cavitation dynamics and biomedical applications High-performance computing (HPC) for fluid dynamics Liquid jet atomization and particle-laden flows Surface tension and interface reconstruction techniques Publications and Software Fabian has published extensively in leading journals like Physics of Fluids , Journal of Computational Physics , and Journal of Fluid Mechanics . He co-developed software frameworks such as Wave-DNA and APECSS for simulating complex fluid dynamics and acoustic phenomena. Scientific Recognition Margaret Fishenden Centenary Memorial Prize (2015) Leadership Roles Vice-director, Canadian Society for Mechanical Engineering - Fluid Engineering Technical Committee Co-director, Editorial Advisory Committee of Canadian Journal of Chemical Engineering Active contributor to international conferences (APS DFD, ICMF, IUTAM)

• Numerical analysis
• Modeling and simulation
• Multiphase systems
• +5 more