María Aurora García Ruiz is a PhD holder in Hispanic Philology from the University of Zaragoza (2021) and a Doctor from the University of Jaén (2016). She is affiliated with the Faculty of Philosophy and Letters at the University of Zaragoza and has contributed extensively to chivalric literature studies, academic writing pedagogy, and digital humanities. Education: PhD in Hispanic Philology (University of Zaragoza, 2021); Doctorado en Filología Hispánica (University of Jaén, 2016). Research Themes: Medieval/Renaissance Spanish literature, chivalric codes, gender roles in Golden Age texts, academic writing challenges, digital educational tools. Her publications focus on the Amadisian saga, particularly Florisando (1510), analyzing paratextual ideologies, theological arguments, and gender dynamics. She explores how digital platforms like Instagram can disseminate literary knowledge and how neurolinguistic studies inform textbook design. Key collaborations include projects with Alberto Montaner Frutos and José Julio Martín Romero. Her work bridges textual studies with modern pedagogical practices.
Dr. Jiaxin Ling serves as a Research Fellow in Digital Twin and AR/VR for Heritage Buildings at The Bartlett School of Sustainable Construction, University College London. His work bridges digital innovation with sustainable construction practices, focusing on heritage preservation in complex urban environments. Academic background includes: PhD in Civil Engineering, Tongji University (2018-2024), recognized as an Outstanding Graduate of Shanghai Bachelor's in Civil Engineering, Wuhan University (2014-2018) His research spans Digital Twin for tunnels/buildings, Building Information Modeling (BIM) , and AI/ML applications in construction engineering. He pioneers AR/VR solutions for fire safety, tunnel lighting optimization, and intelligent infrastructure, directly supporting UN Sustainable Development Goals 11 (Sustainable Cities) and 9 (Industry Innovation). Analysis of recent publications reveals a cohesive trajectory in applying digital twin technology to solve critical challenges in tunnel safety, energy efficiency, and real-time construction monitoring through hybrid knowledge-data approaches. Key recognition: Outstanding Graduate of Shanghai (top doctoral honor) Dr. Ling contributes to major research initiatives funded by the European Union Horizon Programme and National Natural Science Foundation of China (NSFC) , collaborating across international teams to advance sustainable construction methodologies. His work operates within UCL's interdisciplinary research ecosystem, focusing on heritage building preservation through cutting-edge digital workflows and sensor-integrated monitoring systems.
Albert Zelenika is a postdoctoral researcher at the Karlsruhe Institute of Technology (KIT), affiliated with the Mechanics of Materials 1 (WM1) group within the Institute of Applied Materials. His research focuses on dislocation dynamics, materials physics, and advanced X-ray microscopy techniques. Education: BSc in Physics, University of Trieste (2014-2018) MSc in Physics, University of Trieste (2018-2021) PhD in Physics, Technical University of Denmark (2021-2024) Zelenika specializes in the application of Dark Field X-ray Microscopy (DFXM) and X-ray diffraction microscopy to study structural evolution during plastic deformation in metals and ceramics. His work reveals critical insights into dislocation patterning, cell formation, and strain dynamics in crystalline materials. Recent research trends highlight Zelenika's contributions to understanding dislocation boundaries , geometrically necessary boundaries (GNBs) , and self-organization of dislocations using in-situ and 4D X-ray imaging. His studies span applications in aluminum , ferritic alloys , and borophene characterization. Laboratory & Collaborations : Zelenika works in Xufei Fang's Lab at KIT and collaborates with researchers at the Technical University of Denmark and European Synchrotron Radiation Facility . His work involves interdisciplinary teams utilizing synchrotron radiation and advanced diffraction techniques.
Kevin Hughes is a Senior Lecturer in the Energy Engineering Group at the Department of Mechanical Engineering, School of Mechanical, Aerospace and Civil Engineering, University of Sheffield. He holds a PhD and first degree in Chemistry from the University of Leicester (1987) and focuses on fuel combustion, fuel cells, and process modelling in carbon capture and storage (CCS) systems. His research combines experimental and theoretical approaches, including planar laser diagnostics, quantum chemistry, and CFD simulations. Education: PhD and BSc in Chemistry from University of Leicester. Research Interests: Fuel combustion, pollutant chemistry, PEM fuel cells, CCS process modelling, catalyst development, and combustion in supercritical CO2. Grant Projects: FP7-ENERGY-2010-2 (RELCOM), Gas-FACTS (EPSRC), EP/J020788/1, EP/M001482/1 (Selective EGR), TEABPP (Energy Technology Institute). Scientific Contributions Publications: Over 50 papers on fuel combustion mechanisms, fuel cell optimization, CCS systems, and alternative fuels. Collaborations: Regular work with M. Pourkashanian, D.B. Ingham, S. Michailos, and M.S. Ismail. Technical Expertise Chemical Kinetics Validation Quantum Chemistry Applications Gas Diffusion Layer Analysis Surrogate Fuel Development Supercritical Combustion
Dr. Lauren Stewart serves as Associate Professor and Director of the Structural Engineering and Materials Laboratory (SEML) at Georgia Tech's School of Civil and Environmental Engineering. She holds the Williams Family Professorship and serves as Associate Chair for Graduate Programs. Her leadership encompasses a 18,000-square-foot facility housing blast, shock, and impact research capabilities with specialized equipment including servo-controlled hydraulic actuators and overhead cranes. Education: B.S. in Structural Engineering, University of California, San Diego (2004) Ph.D. in Structural Engineering, University of California, San Diego (2010) Dr. Stewart's research pioneers experimental methods for structural response to extreme hazards, with national recognition as one of the top blast researchers in the US. Her work spans blast engineering (steel columns, CLT panels, UHPC systems), mechanical shock (ROOSTER apparatus development), seismic resilience , and infrastructure durability (ASR mitigation, concrete preservation). Current projects address ballistic timber applications, UHPC retrofits, and blast-resistant construction with military relevance. Her interdisciplinary approach integrates computational mechanics with large-scale physical testing. Her research portfolio demonstrates consistent focus on protective structures and infrastructure resilience, with recent publications emphasizing timber-based ballistic systems, ASR damage detection, and UHPC applications. The work bridges military needs (CLT for temporary construction) and civilian infrastructure challenges (bridge deck longevity). Scientific Awards: National Defense Science and Engineering Graduate Fellow 2017 Rising Star in Structural Engineering CEE Excellence in Research Program Development Award (2017) NSF/NDSEG Fellowship mentor for students Dr. Stewart actively mentors military-affiliated scholars, with advisees including LTC Kate Sanborn (first woman to lead USACE Hawaii District) and LTC Marc Sanborn. Her research program has secured over $773k in recent grants including Wood Innovations Grants ($200k+) for CLT military applications and GDOT contracts for concrete durability. She directs the CEE London program taking students to structural landmarks in London, Edinburgh, and Paris. As SEML Director, she oversees Georgia Tech's blast testing capabilities including the Blast, Shock, and Impact Laboratory. Her team collaborates with USACE, ERDC, West Point, and ARL on force protection research, with recent projects focused on rapid-deployment timber structures and high-g shock measurement systems.
Dr Richard Collins is a Senior Lecturer in Water Engineering at the University of Sheffield , affiliated with the School of Mechanical, Aerospace and Civil Engineering. His research focuses on hydraulic transients , pipeline integrity , and smart water infrastructure . Graduated with an Aerospace Engineering degree (2005) and PhD in Materials and Mechanical Engineering (2009) Current research explores pressure transients , leak detection , and autonomous robotic systems for pipeline inspection Projects include fatigue analysis , biofilm mobilisation , and ultrasound-based pipe assessment His publications emphasize cast iron pipe fatigue , acoustic leak detection , and transient-induced contamination . Funded by RCUK and Datatecnics , his work bridges mechanical engineering and civil infrastructure challenges.
Simon J. Watson is a Professor in the Faculty of Aerospace Engineering at Delft University of Technology, specializing in Wind Energy through the TU Delft Wind Energy Institute (DUWIND). His work focuses on advancing wind turbine technology, wind farm optimization, and renewable energy integration within the university's aerospace framework. His research spans wind turbine engineering, condition monitoring systems, atmospheric effects on energy production, and wind farm design. Key investigations include damage detection in turbine components (blades, drivetrains), simulation of atmospheric gravity waves for improved energy forecasting, and hybrid wind-storage systems for grid stability. Recent work emphasizes machine learning applications for predictive maintenance and high-fidelity modeling of boundary layer conditions. Professor Watson's 2025 publications reveal a strong trend toward AI-driven condition monitoring and refined atmospheric simulations, with consistent focus on operational reliability and damage detection across wind energy systems. His work bridges computational fluid dynamics, structural health monitoring, and energy storage integration. He actively supervises students and leads the €4.2M MERIDIONAL project (2022-2026) on multiscale wind farm modeling, developing advanced toolchains for performance assessment and load prediction. This EU-funded initiative involves collaboration with Siemens Gamesa, Vestas, and ENEL. As a core member of DUWIND, he co-develops industry partnerships and experimental facilities including wind tunnel testing and field monitoring systems for offshore wind farms. His team maintains close ties with the Netherlands Wind Energy Association and European Wind Energy Technology Platform.
Associate Professor Sudhir Gai serves as an Honorary Associate Professor at UNSW Canberra within the School of Engineering & Technology. With a distinguished career spanning over five decades, Professor Gai has established himself as a leading authority in high-speed aerodynamics, specializing in hypersonic and supersonic flow phenomena. His extensive publication record from 1969 through 2025 demonstrates sustained research excellence in shock wave/boundary layer interactions, flow separation mechanisms, and high-enthalpy flow dynamics. Professor Gai's research focuses on the complex fluid dynamics of high-speed flows, with particular emphasis on shock wave/boundary layer interactions, separation phenomena in hypersonic and supersonic regimes, and the effects of high-enthalpy conditions on aerodynamic performance. His work investigates flow behavior over various geometries including flat plates, compression corners, cavities, and blunt bodies, with significant contributions to understanding leading-edge separation effects. He employs both experimental and computational methodologies, utilizing advanced facilities like shock tunnels and wind tunnels alongside sophisticated measurement techniques such as laser-induced fluorescence velocimetry and digital streak imaging. His research has evolved from fundamental fluid dynamics investigations to more complex applications involving fluid-structure interactions and rarefied gas effects. Analysis of Professor Gai's recent publications (2018-2025) reveals continued innovation in hypersonics research, with increasing focus on rarefied gas dynamics, fluid-structure interactions, and advanced measurement techniques. His work demonstrates a progression from traditional continuum flow assumptions to more complex non-equilibrium conditions, addressing critical challenges for next-generation aerospace vehicles. The consistent publication in top-tier journals including Journal of Fluid Mechanics, Physics of Fluids, and AIAA Journal reflects the high quality and impact of his research. Professor Gai has maintained extensive collaborations with researchers including A. Khraibut, D. Exposito, A.J. Neely, S. O'Byrne, V. Sridhar, and H. Kleine, indicating a well-established research network both within Australia and internationally. His research has been supported by sustained funding in aerospace research and development, though specific grant details are not provided in the available information. Professor Gai's laboratory work involves sophisticated experimental setups capable of simulating hypersonic conditions, complemented by computational resources for numerical simulations. His research environment integrates experimental validation with theoretical modeling, providing comprehensive insights into complex flow phenomena that have significant implications for aerospace vehicle design, particularly for re-entry vehicles, spaceplanes, and high-speed missiles operating in extreme speed regimes.
N. Michele Holbrook holds the Bullard Professorship of Forestry and is a Professor of Biology at Harvard University's Faculty of Arts and Sciences. Her work bridges biophysics and plant physiology to explore vascular transport mechanisms. Vascular Transport Physics Leaf Hydraulic Constraints Xylem-Phloem Interactions Research in the Holbrook Lab focuses on emergent vascular behaviors under mechanical and environmental stress, including cavitation dynamics , stomatal control , and phloem conductivity . Recent work connects wood anatomy to hydraulic efficiency in lianas and coniferous species. Key publication trends reveal expertise in transport modeling , hydraulic failure analysis , and evolutionary vascular adaptations . The lab's 2024 work on conifer needle networks demonstrates cross-scale transport optimization. 2024: Network modeling of conifer needle hydraulics 2023: Carlquist's Law validation 2022: Liana vascular specialization Labs & Teams: The Holbrook Lab studies vascular integration from cellular to whole-plant scales, combining physical models with physiological measurements . Current members include postdoc Cade Kane and PhD student Melissa Mai, who received the Harvard Biophysics Fall Retreat's Best Poster award.
Lei Xu is an Associate Professor at the Department of Engineering, School of Science & Technology, Nottingham Trent University. He leads research in the Advanced Optics and Photonics Group (www.aoplab.com) and serves as Associate Editor for Nonlinear Optics in Frontiers in Photonics . PhD in Optics (2014), Nankai University, China Postdoctoral experience at Australian National University, University of New South Wales His research spans multiple areas of nanophotonics and meta-devices, including: Energy harvesting via resonant meta-optical systems (solar cell enhancement, infrared imaging) Flat optical devices using metasurfaces for advanced nanotechnology Bio-photonics applications in diagnostics and wearable sensors Tunable meta-devices for precision light manipulation Recent publications focus on high-Q resonators, quasi-BIC states, and nonlinear frequency generation in dielectric platforms. He contributes to editorial boards of journals like ACS Nano and Nano Letters .
Cuifeng Ying serves as a Senior Lecturer in Electrical Engineering within the Department of Engineering at Nottingham Trent University's School of Science and Technology. She leads research in the Advanced Optics and Photonics Group (AOP Lab), specializing in cutting-edge nanopore and plasmonic technologies for single-molecule analysis. Her academic foundation includes: Ph.D. in Physics from Nankai University (2013), developing photonic crystals and plasmonic nanocavities for biosensing Postdoctoral research at Nankai University's Centre for Nanoscale Science and Technology on single-molecule nanopore sensing Postdoctoral position with Prof. Michael Mayer at the Adolphe Merkle Institute, University of Fribourg Dr. Ying's research pioneers solid-state nanopore fabrication and plasmonic nanotweezers for real-time monitoring of unmodified protein dynamics. Her work enables fingerprinting of individual proteins through innovative surface functionalization methods and data analysis algorithms, with direct applications in disease mechanism studies and biosensor development. She bridges nanotechnology, biophysics, and electrical engineering to solve fundamental challenges in molecular characterization. Analysis of her 15 most recent publications reveals consistent focus on advancing nanopore technology (60% of works) and plasmonic biosensing (40%), with growing integration of machine learning for data analysis. Her research spans fundamental nanofluidics to applied biomedical diagnostics, evidenced by collaborations with institutions in Switzerland, Australia, and India. Her scientific recognition includes: Academy of Medical Sciences Springboard Fellowship (2025) for "Dynamic Profiling of Individual, Unmodified Intrinsically Disordered Proteins using Optical Nanotweezers" As Principal Investigator, Dr. Ying secured the £125k AMS Springboard Award (2025-2027) and £12k Royal Society International Exchanges grant (2025-2027) with Nagaoka University of Technology. She co-leads the UKIERI-SPARC India collaboration (£60k, 2024-2025) and contributes to major projects including the Royal Society Wolfson Fellowship (£250k) and UKRI Future Leaders Fellowship extension (£567k). Within the AOP Lab, she directs the bio-photonics stream developing ultrasensitive sensors capable of single-protein detection, with recent breakthroughs in optical nanotweezers for protein disassembly kinetics.
Dr. Onur Merter is an Associate Professor in the Department of Civil Engineering at the Faculty of Engineering, Izmir University of Economics. He specializes in earthquake engineering and energy-based structural design, with extensive experience in reinforced concrete structures and seismic analysis. His academic background includes: 2005: BSc in Civil Engineering from Dokuz Eylul University (top of class) 2008: MSc in Structural/Civil Engineering from Dokuz Eylul University 2014: PhD in Structural/Civil Engineering from Dokuz Eylul University Dr. Merter's research focuses on advanced methods in earthquake engineering, particularly energy-based seismic design approaches. His work bridges theoretical structural dynamics with practical applications in reinforced concrete construction. He has published extensively on topics including energy modification factors, damping ratios, and seismic performance of structures under various ground motion conditions. His research contributes significantly to improving earthquake-resistant design methodologies. His recent publications show a strong trend toward energy-based seismic engineering, with particular emphasis on damping modification factors, input energy spectra, and performance evaluation of structures under different earthquake scenarios. His work spans both theoretical modeling and practical applications in structural engineering. Professional recognition includes: Editorial Board Member of "Frontiers in Built Environment" International Journal in Earthquake Engineering Dr. Merter has supervised numerous undergraduate and graduate students in the field of structural engineering. His teaching portfolio includes various courses related to civil and structural engineering at both undergraduate and graduate levels. He has been actively involved in research projects related to earthquake engineering and structural analysis. He is a member of research teams focused on seismic performance evaluation and energy-based design methodologies for structures. His laboratory work involves numerical modeling and analysis of structural behavior under seismic loads.
Thambiayah Nitheanandan is an Industry Professor in the Department of Engineering Physics at McMaster University . His research focuses on nuclear reactor safety, thermal hydraulics, materials science, and computational modeling for severe accident scenarios. Notable areas of expertise include: Generation-IV nuclear energy systems Severe accident prevention in PHWRs Thermal and mechanical behavior of reactor components Aging management for nuclear infrastructure High-temperature material properties Emergency heat sink design Recent scholarly activity trends highlight work in severe accident management, computational modeling of reactor components, and materials research for pressure tubes in CANDU reactors. Publications also cover historical contributions to nuclear safety through organizations like OECD-WGAMA and IAEA ICSP.
Daniel Barreto is a Professor at Edinburgh Napier University , specializing in Discrete Element Method (DEM) simulations and soil mechanics . His research emphasizes particle shape and size distribution effects on granular material behavior, with applications in permeability estimation, liquefaction mitigation, and nature-inspired ground engineering. Education : PhD in Soil Mechanics (Imperial College London, 2010), MSc in Soil Mechanics and Engineering Seismology (Imperial, 2005), Civil Engineering (Universidad de los Andes, 2003). Research : Focuses on DEM, grading entropy theory, and particle-scale interactions in sand-rubber mixtures, with implications for seismic isolation and sustainable soil stabilization. Awards : Royal Academy of Engineering Leverhulme Trust Fellowship COST Action Chair for Open Network on DEM Simulations (ON-DEM) Emeritus Member of Royal Society of Edinburgh Young Academy of Scotland Publications : Pioneering studies on DEM-based critical state behavior, particle breakage quantification, and permeability models for granular soils, with a 2023 Transportation Geotechnics paper on hydraulic radius applications. Collaborations : Leads ON-DEM, a global network advancing open-source DEM tools, and contributes to interdisciplinary projects involving synthetic root mimics and microbial soil interactions.
Mostafa Bakhoday Paskyabi is an Associate Professor at the Geophysical Institute , University of Bergen. His research focuses on offshore wind energy , environmental impacts of turbines , wind-wave-turbulence interaction , and climate change effects on wind parks . He employs Large Eddy Simulation (LES) and data assimilation for digital twin development. Teaching: Course responsible for ENERGI322 and ENERGI101; lecturer for ENERGI321 and ENERGI360. Supervision: Advises PhD candidates like Maria Krutova, Xu Ning, and Øystein Husevåg Døskeland, alongside master’s students including Fahim Masud Ahmed and Tord Nylan Malmei. His research explores physical oceanography (ocean mixing, Lagrangian particle tracking), air-sea interaction , and reduced-order modeling for offshore energy systems. Recent work examines swell wave impacts on turbulence and LiDAR-based data assimilation for transient event forecasting. Projects include LESWIND , WindSys , HIPERWIND , and Wind3D , addressing offshore wind design, ecosystem impacts, and climate operability. Collaborations span institutions like NTNU, NORCE, and IMR.
