Andrew Hursthouse is a Professor of Environmental Geochemistry at the School of Computing, Engineering and Physical Sciences, University of the West of Scotland. His research spans environmental geochemistry, pollutant transport, waste management, and sustainability. Environmental Geochemistry Sustainable Development Contaminated Land Remediation Urban Green Infrastructure Research Interests include the behavior of inorganic/organic pollutants across atmospheric, aquatic, and terrestrial environments; circular economy strategies; and risk assessment of contaminated sites. His work bridges environmental regulation and industrial policy. Recent Publications focus on heavy metal removal using advanced materials (e.g., MOFs, red mud composites), antimicrobial resistance in polluted ecosystems, and sustainable e-waste management in global south contexts. Key topics: Antimony Remediation Nitrogen Removal Microplastics Wastewater Treatment One Health Climate-Health Links
Assoc. Prof. Dr. Hatice Tunca serves at the Department of Biology, Faculty of Science, Sakarya University , Turkey. With over 15 peer-reviewed publications in Q1-Q4 journals, her research focuses on algal physiology, aquatic toxicology, and environmental monitoring using diatom indices. Current courses: Algal Culture Techniques, Advanced Phycology, Scientific Research Methods Editorial roles: Peer reviewer for African Journal of Aquatic Science , Environmental Science and Pollution Research , and others Scientific awards: Erasmus Staff Mobility Grant, Best MSc Poster & Oral Presentation Awards Her work examines phytoplankton community responses to environmental stressors like pesticides and heavy metals, with particular emphasis on Arthrospira platensis and Chlorella vulgaris . She investigates diatom-based water quality assessment across Turkish river basins and contributes to cyanotoxin distribution patterns in European lakes under climate change scenarios. Key publications include studies on: Synthetic metal phthalocyanines' algaecidal effects Temperature-toxin relationships in cyanobacteria Salinity impacts on algal communities New algal species records for Turkey Antioxidant enzyme responses to pollutants She has mentored students like Tuğba Ongun Sevindik and serves as investigator in national projects on water quality monitoring.
Zhechen Hou is a Research Fellow at the University of Western Australia's School of Earth and Oceans, affiliated with the Oceans Institute. His research focuses on developing techniques to prepare carbonate samples with field-representative engineering properties and investigating microscopic sediment behaviors. He collaborates with the Centre for Microscopy, Characterisation and Analysis (CMCA) and works within the ARC Industrial Transformation Research Hub for Transforming Energy Infrastructure through Digital Engineering (TIDE ITRH). Previously, he served as a Research Associate at the ARC Industrial Transformation Research Hub on Offshore Floating Facilities. His educational background includes: PhD in Offshore Geotechnical Engineering from University of Western Australia (2017-2020) MSc (Cum Laude) in Offshore and Dredging Engineering from Delft University of Technology (2014-2016) BEng in Ocean and Naval Engineering from Tianjin University (2010-2014) Hou's research spans offshore geotechnics, soil-fluid-structure interaction, and renewable energy infrastructure. His work integrates centrifuge testing, numerical modeling, and data mining to address challenges in offshore pipeline/cable design, pile foundations, and wind farm installations. Recent publications demonstrate a strong focus on time-dependent soil behavior, seabed infrastructure interactions, and damage assessment of submarine systems. His scientific recognitions include: Faculty Scholarship for International Research Fees (2017) ITRH Offshore Floating Facilities Scholarship (2017) Cum Laude distinction (2016) Hou actively collaborates with the Centre for Offshore Foundation Systems (COFS) and contributes to industry standards development, including the API-ISO subsea infrastructure design guidelines. His work bridges academic research and industrial applications for both traditional energy and renewable energy sectors.
Leroy Gardner is Professor of Structural Engineering in the Department of Civil and Environmental Engineering at Imperial College London, Faculty of Engineering. He leads a major research group focused on steel structures and is actively involved in teaching, industry training, and advisory roles. He is a Fellow of the Royal Academy of Engineering, the Institution of Civil Engineers (FICE), and the Institution of Structural Engineers (FIStructE). His research centers on structural testing, numerical modeling, and the development of design methods for steel structures, with a strong emphasis on innovative techniques such as wire arc additive manufacturing (WAAM), 3D printing, and advanced analysis. Key materials under investigation include stainless steel, high-strength steel, cold-formed steel, and aluminum alloys. His work spans structural stability, fire performance, composite systems, and sustainable construction. The recent body of publications (2023–2025) reveals a consistent focus on metal additive manufacturing, structural performance under extreme conditions, and advanced design methodologies such as the Continuous Strength Method (CSM) and geometrically nonlinear analysis (GMNIA). Topics include residual stresses, buckling, fatigue, and hybrid construction, indicating a highly active and forward-looking research program. Fellow of the Royal Academy of Engineering IABSE Prize (2017) ASCE Shortridge Hardesty Prize (2021) Fellow of the Institution of Civil Engineers (FICE) Fellow of the Institution of Structural Engineers (FIStructE) Imperial President's Excellent Research Team Prize (2024) Prof. Gardner leads the Steel Structures Group at Imperial, comprising about 20 doctoral and post-doctoral researchers. He has co-authored over 400 technical papers and four textbooks. He serves as Editor-in-Chief of two international journals and on the editorial boards of five others. He chairs multiple IStructE and BSI committees and is the UK National Representative on the European Working Group for EN 1993-1-1. His research is supported by industry collaboration and national funding, contributing directly to design standards and codes. Future work continues to focus on digital fabrication, sustainability, and resilience in steel construction. The Steel Structures Group is a leading research team in structural engineering, recognized with the 2024 Imperial President's Excellent Research Team Prize. The group conducts experimental, numerical, and theoretical research on steel and composite structures, with a strong focus on innovation in manufacturing, design, and sustainability. Projects include metal 3D printing, fire-safe design, and hybrid structural systems.
Lindsey Heagy is an Assistant Professor in the Department of Earth, Ocean & Atmospheric Sciences at the University of British Columbia (UBC), Faculty of Science. Her research focuses on inverse theory, machine learning, and geophysical data analysis, with applications in mineral exploration, carbon sequestration, and groundwater systems. She leads a group developing open-source software like SimPEG for geophysical simulations and inversions, alongside GeoSci.xyz for geoscience education resources. Key research areas include geophysical inversions of electromagnetic and potential field data, detection of unexploded ordnance (UXO) using machine learning, and collaboration with industry partners on carbon sequestration projects. Heagy actively recruits graduate students and postdoctoral researchers, emphasizing interdisciplinary approaches to geophysical challenges. Her work emphasizes open science practices, with contributions to open-source tools for data processing and reproducible workflows in geophysics. Recent publications highlight advancements in electromagnetic modeling, magnetic vector inversion, and the integration of neural networks in geophysical parameterization. Her lab's projects often involve large-scale datasets and cutting-edge computational methods, reflecting a commitment to both theoretical innovation and practical applications in environmental and resource geoscience.
Dr Fernando Alvarez Borges is a Senior Research Fellow at the University of Southampton, specializing in X-ray and neutron computed tomography applications for geomaterials, particulates, and porous media research. His work integrates Deep Learning methods with geomechanics, particularly focusing on offshore renewable energy infrastructure. With over eight years of experience in non-destructive analysis, he contributes to academic and enterprise projects across material sciences, palaeontology, and conservation. Research Interests: 3D imaging technologies, geotechnical engineering, renewable energy systems, and AI-driven image analysis Methodologies: Synchrotron X-ray tomography, neutron imaging, computational modeling Recent publications highlight his work on hydrogen storage in geological formations, methane hydrate dynamics, and advanced composite manufacturing. He actively collaborates with interdisciplinary teams across geosciences, mechanical engineering, and biomedical applications. External Engagement: Invited speaker at the 6th Annual Workshop on Advances in X-ray Imaging (2023)
Chengjiao Ren serves as an Adjunct Lecturer at the School of Engineering, The University of Western Australia, contributing expertise in fluid dynamics and computational modeling. With a strong research profile evidenced by an h-index of 7 and 22 research outputs, Dr. Ren's work spans theoretical and applied aspects of fluid mechanics with practical applications in ocean engineering and resource industries. Dr. Ren's academic foundation includes: PhD in Civil Engineering from Dalian University of Technology (2015-2021), with dissertation on "Synchronisation behaviours of steady and oscillatory flows past multiple cylinders" Bachelor of Engineering in Civil Engineering from Dalian University of Technology (2011-2015) Research interests center on fluid flow control mechanisms, particularly vortex shedding manipulation, drag reduction, and mixing enhancement through computational fluid dynamics. The work focuses on bluff-body flows, pipeline response, and hydrodynamics, with applications in ocean engineering, energy, and mining sectors. This research contributes to UN Sustainable Development Goals related to sustainable infrastructure and clean water. Current investigations examine circular cylinder flows near plane walls, oscillating cylinder dynamics, and porous medium modeling for windscreen applications. Dr. Ren actively serves the academic community through peer review activities for leading journals including Journal of Fluid Mechanics, Physics of Fluids, Ocean Engineering, Journal of Fluids and Structures, and Journal of Marine Science and Application, demonstrating recognition as an expert in the field. Research collaborations span multiple institutions, with recent work involving colleagues from various universities on topics including hydrodynamic damping, flow structures near plane walls, and porous medium modeling. The research combines computational approaches with experimental validation, contributing to both theoretical understanding and practical engineering solutions in fluid-structure interaction problems.
Ahmed Reda is an Adjunct Associate Professor at the School of Engineering, The University of Western Australia. His research focuses on optimization methodologies, corrosion prevention in marine infrastructure, and sustainable decommissioning strategies for subsea pipelines. His work addresses critical challenges in materials science, environmental sustainability, and operational efficiency in harsh environments like the Arabian Gulf. Recent studies include assessing strain in concrete-coated pipes using finite element models and analyzing surface roughness of subsea cables to improve durability. He collaborates on transitioning from carbon steel to corrosion-resistant alloys (CRAs) for CO₂ pipelines, emphasizing lifecycle cost reduction. His optimization approach for decommissioning unpiggable pipelines offers actionable insights for the energy sector. Notable collaborations involve institutions and industries focused on offshore technology and marine engineering. His research aligns with UN Sustainable Development Goals, particularly environmental sustainability and industrial innovation. Despite no explicitly listed awards, his contributions to pipeline integrity and sustainable practices reflect impactful academic engagement. His advisory work remains unspecified, but his research trends indicate active participation in cross-disciplinary teams addressing global engineering challenges.
Nicola Clayton is Professor of Comparative Cognition at the University of Cambridge , Department of Experimental Psychology. Her research explores animal cognition, memory, and social behavior in corvids, primates, and cephalopods. Research Trends: Focuses on episodic memory, self-control, and decision-making across species. Key Findings: Demonstrated future planning in cuttlefish, desire attribution in jays, and memory mechanisms in birds. Scientific Awards: Fellow of the Royal Society (2010) Labs & Teams: Maintains the Madingley corvid aviaries, supported by public and academic donations.
Professor Hong Wong is a Professor of Concrete Materials in the Department of Civil and Environmental Engineering at Imperial College London’s Faculty of Engineering. His research focuses on the microstructure, durability, and sustainability of cementitious materials, aiming to develop low-carbon and high-performance concrete solutions. He leads the EPSRC-funded EUREKA project on low-carbon cements from UK clays and co-founded Seratech (zero-carbon cement) and Permia (high-strength permeable concrete). Education: BEng (First Class Honours) and MSc (Research) from University of Malaya; PhD (W.C. Unwin Prize) from Imperial College London. Professional roles include Undergraduate Year 2 Coordinator, Course Director of the Advanced Materials for Sustainable Materials MSc, and Laboratory Director of the Centre for Infrastructure Materials. He teaches modules on cementitious materials and structural mechanics. Research interests span low-carbon cements, microstructure analysis, petrography, and durability assessment. Notable projects include magnesium silicate-based cements, waste clay utilization, and self-healing concrete. He has contributed to standards like BS 1881-211:2016 and serves on committees for Innovandi, Nanocem, and the Applied Petrography Group. Scientific awards include the 2017 CivSoc Student Choice Award for Best Lecturer. Grants include major EPSRC funding. His work bridges academia and industry via Imperial Consultants and patents (e.g., high-strength porous cement materials). He explores circular construction through recycling of waste materials like wind turbine blades and end-of-life bricks. Labs/teams: Centre for Infrastructure Materials, APG inter-laboratory trials, RILEM committees (TC 262-SCI, TC 286-GDP). Collaborates globally on initiatives like the Global Cement and Concrete Research Network (Innovandi).
Spyros Masouros is an Associate Professor in Injury Biomechanics at Imperial College London's Department of Bioengineering, part of the Faculty of Engineering. He serves as Associate Director (Research) at the Royal British Legion Centre for Blast Injury Studies and directs the Injury & Reconstruction Test Suite. His work focuses on musculoskeletal trauma, particularly in the lower extremities, pelvis, and spine, combining clinical, experimental, and computational methods to improve injury prevention, treatment, and rehabilitation strategies. Key affiliations include the Centre for Blast Injury Studies, Musculoskeletal Medical Engineering Centre, Neuromuscular Rehabilitation Technology Network, and Wound Healing and Regeneration Network. His research spans biomechanical modeling of blast injuries, material characterization for protective systems, and clinical applications in trauma care. Recent publications emphasize pelvic binder efficacy, spinal injury mechanisms, and pressure ulcer prevention. He collaborates across disciplines to address military and civilian trauma challenges, with a focus on translational research and technological innovation in medical devices and protective systems.
Dr. Shayan Sharifi serves as Principal Teaching Fellow and Director of Education at Imperial College London's Dyson School of Design Engineering (Faculty of Engineering), leading Industrial Design Engineering and Physical Computing modules while advising Innovation Design Engineering programs at the Royal College of Art. Education: PhD in Tribology of Bio-implants, University of Strathclyde MSc in Mechanical Engineering, University of Glasgow Research Focus: His work bridges Materials Engineering and Design Innovation , targeting real-world challenges in erosion-corrosion mechanisms (marine renewables, medical devices) and sustainable systems (waste plastic interception, slurry transportation). Recent expansion into medical imaging and educational transformation demonstrates interdisciplinary evolution while maintaining core expertise in tribological behavior under complex environments. Publication Trends: Analysis of his 2013-2024 publications reveals foundational work in bio-implant tribology and marine material degradation, progressively incorporating multiphysics modeling and expanding into medical diagnostics (OCT for brain injury) and pedagogical innovation—reflecting a strategic shift toward human-centered engineering solutions. Awards: No scientific awards documented in source materials. Advising & Grants: Directed industrial projects for waste management and medical device development, with prior involvement in the SUPERGEN Marine Challenge grant for tidal energy research. Teaching leadership spans curriculum design for physical computing and global innovation programs. Collaborative Frameworks: Operates within Imperial's cross-disciplinary design engineering ecosystem, leveraging industry partnerships for prototyping sustainable technologies while advancing educational methodologies through the Physical Computing research stream.
Dr. Li Ma is an Assistant Professor in Fluid-Structure Interaction at the Department of Civil and Environmental Engineering, Faculty of Engineering, Imperial College London. He joined the university as an undergraduate student, pursued a PhD in the Fluid Mechanics Section, and was appointed as Lecturer in 2020. His research focuses on fluid-structure interaction, including offshore structures, hydrodynamic impacts, wave loads, and renewable energy systems. Key interests include wave breaking, fluid loading models, load statistics, experimental methods, and solar power efficiency. Educations: Bachelor’s degree in Civil Engineering at Imperial College London PhD in Fluid Mechanics at Imperial College London Research Interests: Li Ma’s work bridges fluid dynamics and civil engineering challenges, particularly in marine and energy systems. He explores turbulent buoyancy-driven flows, structural reliability under dynamic loads, and innovative experimental techniques. His recent studies emphasize applications in offshore engineering and renewable energy infrastructure. Labs & Affiliations: Li Ma is affiliated with the Fluid Mechanics Section and the Grantham Institute , contributing to interdisciplinary projects on sustainable energy and environmental engineering.
Goli Nossoni is an Associate Professor in the Department of Civil and Environmental Engineering at the University of New Haven's Tagliatela College of Engineering. She joined the faculty in Spring 2018 and holds a Ph.D. and M.S. in Civil Engineering from Michigan State University, alongside a B.S. from the University of Zanjan, Iran. Her research focuses on structural engineering, sustainability, and advanced civil engineering materials with particular emphasis on corrosion-induced cracking in concrete and self-healing materials. Dr. Nossoni currently serves as the undergraduate civil engineering program coordinator and advisor for the American Society of Civil Engineers (ASCE) student chapter. Her work combines technical innovation with educational pedagogy, evidenced by publications exploring Gen Z engineering student demographics and makerspace integration in curricula. Her over 15 years of research output includes pioneering studies on FRP-wrapped concrete reinforcement corrosion modeling (since 2010), bacterial-based self-healing concrete mechanisms (2016-2019), and chloride diffusion mitigation strategies. These contributions have been presented at major conferences like ASEE and the International Concrete Sustainability Conference. Her professional activities include media commentary on structural integrity issues such as the Florida building collapse discussed in Connecticut Public Radio interviews. She maintains active roles in both technical research and educational innovation within civil engineering disciplines.
Dr. James Garofalo is an Associate Professor of Marine Engineering at the United States Merchant Marine Academy (USMMA). He holds a PhD in Mechanical Engineering from Rensselaer Polytechnic Institute and additional degrees from Columbia University and Adelphi University. His research focuses on composite materials, additive manufacturing, and automation in maritime engineering. Dr. Garofalo has contributed to advancements in thermoplastic composites, in-situ impregnation techniques, and sustainable manufacturing processes. Education: PhD, Mechanical Engineering, Rensselaer Polytechnic Institute M.S., Mechanical Engineering, Rensselaer Polytechnic Institute B.S., Mechanical Engineering, Columbia University B.S., Physics, Adelphi University Research Interests: Dr. Garofalo’s work spans composite materials, 3D printing, and automated manufacturing systems. His recent projects include developing low-cost biocomposites, optimizing in-situ impregnation for thermoplastic composites, and advancing additive manufacturing applications in the maritime sector. He has also explored child safety mechanisms for consumer products. Publications Overview: His articles highlight innovations in composite material processing, such as rapid curing techniques and specialized tooling (e.g., SETRI). He has contributed to both academic and industrial applications, including battery anode deposition methods and safety engineering advancements. Labs/Teams: While specific lab names are not mentioned, his research involves collaborative efforts in materials testing, additive manufacturing systems, and maritime technology development at USMMA.
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