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Dr. Nicola Mingotti is a Research Associate in the Department of Earth Sciences at the University of Cambridge, affiliated with the Institute for Energy & Environmental Flows (IEEF). His experimental research focuses on fluid mechanics in the context of energy transition, particularly carbon sequestration and underground hydrogen storage, while also addressing oceanic microplastics dispersion and atmospheric volcanic ash transport. Research Associate, University of Cambridge IEEF Flow Laboratory His work on multiphase flows spans volcanic eruptions, oceanic microplastics separation, and contaminant dispersion in hospital environments. Recent studies include Journal of Fluid Mechanics publications on bubble plumes (2023) and sediment-laden oceanic plumes (2022), alongside Communications Earth & Environment articles on CO2 storage (2024) and volcanic dynamics (2021). Scientific awards and honors: None explicitly mentioned in the text. As an engineering researcher, he led investigations on droplet transport in ventilation systems (Royal Papworth Hospital, 2021) and historical surgical environment design (2021). His publications demonstrate interdisciplinary expertise across environmental fluid mechanics, geological engineering, and public health.

• Carbon Sequestration
• Hydrogen Storage
• Multiphase Flows
• +3 more

Sotiria Tsochataridou is a researcher affiliated with Newcastle University , focusing on advanced membrane technologies for CO 2 separation and concentration. Her work involves innovative applications of molten-carbonate membranes, particularly in environmental and sustainable energy contexts. Research Interests: Specializes in environmental engineering, carbon capture, and materials science. Key projects include humidity-driven membrane systems for atmospheric CO 2 extraction and permeation rate analysis through optical visualization techniques. Publications: Recent work (2020–2025) explores freeze-cast ceramic supports for enhanced membrane performance and novel methods for measuring gas separation efficiency.

• Environmental Engineering
• Chemical Engineering
• Carbon Capture
• +3 more

Professor Ian Metcalfe is a distinguished academic at Newcastle University, specializing in advanced materials for energy applications, particularly in the areas of membrane technology, chemical looping processes, and catalysis. His research spans multiple interdisciplinary fields with significant implications for carbon capture, hydrogen production, and sustainable energy systems. Professor Metcalfe's research primarily focuses on membrane technology for gas separation, particularly CO 2 capture and hydrogen production . His work extensively investigates chemical looping processes using various oxygen carrier materials, particularly perovskite-based materials . A significant portion of his recent research explores nanoparticle exsolution for creating highly stable and active catalysts. His research group has made notable contributions to understanding the thermodynamics of non-stoichiometric materials and developing novel membrane configurations for enhanced gas separation. Analysis of Professor Metcalfe's recent publications (2023-2025) reveals a strong focus on CO 2 separation technologies , particularly using molten-carbonate membranes with innovative support structures. His work on exsolution has expanded to include room-temperature processes using plasma techniques and applications in methane reforming. The research shows increasing emphasis on direct air capture technologies and ammonia synthesis via chemical looping, indicating strategic expansion into emerging energy storage and carbon utilization areas. Professor Metcalfe maintains extensive collaborations with researchers including Dr. Wenting Hu, Dr. Evangelos Papaioannou, Dr. Dragos Neagu, and Dr. Greg Mutch. His research has significant implications for decarbonization technologies and sustainable energy systems, particularly in hard-to-abate sectors where efficient CO 2 separation and clean hydrogen production are critical.

• Chemical Looping
• Membrane Technology
• Carbon Dioxide Capture and Separation
• +7 more

Professor Stefano Brandani is the Chair of Chemical Engineering at the School of Engineering , University of Edinburgh , specializing in carbon capture, adsorption, and membrane gas separations. He holds leadership roles as Director of the Chemical Engineering Discipline and research area champion for adsorption and membranes in the UK Carbon Capture and Storage Research Centre. Education : PhD in Chemical Engineering (University of Naples, 1994), Laurea summa cum laude (University of L'Aquila, 1991) Research Interests : Focus on carbon capture technologies, particularly adsorption and membrane-based separation systems. His work addresses diffusion in nanoporous materials , fluidization , and mass transport challenges, with applications in gas separations and CO2 removal from power plants and marine systems. Article Trends : Recent publications emphasize adsorption modeling , multi-scale characterization of nanoporous materials, and industrial process optimization for carbon capture. Topics include diffusion anomalies, isotherm analysis, and water vapor sorption reference data. Scientific Awards & Honors : Royal Society Wolfson Research Merit Award (2001) Philip Leverhulme Prize (2001) Cavaliere dell'Ordine della Stella d'Italia Fellow of the Institution of Chemical Engineers Senior Member of the American Institute of Chemical Engineers Projects & Collaborations : Leads industry-academia partnerships (Atlas Copco, Air Liquide, HD Korea Shipbuilding) focused on ship-based carbon capture, nanoporous material characterization, and solar-powered direct air capture systems. Active in the Scottish Carbon Capture and Storage centre and British Zeolite Association.

• Carbon Capture
• Adsorption
• Membrane Gas Separations
• +2 more

Professor Ronny Pini is a Professor of Multiphase Systems at Imperial College London's Department of Chemical Engineering within the Faculty of Engineering. His research focuses on sustainable industrial processes, particularly carbon capture and storage (CCS), porous media dynamics, and imaging-based process design. He holds a PhD in Mechanical and Process Engineering from ETH Zurich and has held academic positions including Senior Lecturer and Reader at Imperial College since 2015. His educational background includes a Postdoctoral fellowship at Stanford University (2010-2013) and prior roles at the Colorado School of Mines. Research interests span multiphase flow mechanics, adsorption science, and environmental engineering applications. Key projects include the InFUSE Prosperity Partnership and Digital Rocks Lab, leveraging X-ray tomography, positron emission tomography, and computational models to study subsurface CO2 storage and sustainable materials. Professor Pini's work integrates chemical engineering with material science and earth sciences, addressing global challenges like industrial decarbonisation. He collaborates on developing advanced imaging techniques to characterise porous media behavior and optimise processes for energy transition. Current focus areas include direct air capture technologies and enhancing oil recovery via CO2 utilisation. His research outputs include over 150 peer-reviewed articles, with recent emphasis on adsorption-based CO2 capture systems, pore-scale transport phenomena, and sustainable process design frameworks. He is actively involved in training early-career researchers through Imperial College's Chemical Engineering programs and international collaborations.

• Multiphase Systems Engineering
• Carbon Capture and Storage (CCS)
• Sustainable Industrial Processes
• +6 more

Dr. Georgios Triantafyllou is a researcher at Newcastle University, actively contributing to advanced research in carbon dioxide capture technologies using molten salt and ceramic membrane systems. His work is closely associated with prominent researchers such as Professor Ian Metcalfe and Dr. Greg Mutch, indicating a strong collaborative research environment focused on sustainable energy solutions. His research interests lie at the intersection of materials science and chemical engineering, with a focus on carbon dioxide capture , molten salt membranes , self-healing materials , and gas separation technologies . His work explores innovative materials like dual-phase molten salt-ceramic composites and dendritic nanostructures to enhance CO₂ permeation and capture efficiency. The recent publications (2019–2021) demonstrate a consistent research trajectory in developing next-generation membrane technologies for environmental applications. Key themes include self-healing mechanisms in ceramic membranes, nanostructuring for improved gas transport, and optimization of molten carbonate distribution for higher permeation rates. Scientific awards: No awards mentioned in the provided text. Dr. Triantafyllou is involved in significant research projects related to carbon capture, likely supported by institutional or national grants, though specific funding details are not available. There is no public indication of student supervision or advising roles. His research group appears to be part of a larger effort in sustainable chemical engineering at Newcastle University. Laboratory and team affiliations: He is part of a research team working on molten salt membrane technologies, likely within a chemical engineering or materials science lab at Newcastle University, focusing on high-temperature gas separation and carbon capture innovation.

• Carbon Dioxide Capture
• Molten Salt Membranes
• Materials Science
• +4 more

Professor Martin Trusler is a Professor of Thermophysics in the Department of Chemical Engineering at Imperial College London, within the Faculty of Engineering. His affiliations include the Clean Fossil and Bioenergy Group, Energy Futures Lab, Institute for Molecular Science and Engineering, and Thermophysics Laboratory. He holds a BSc (1st class honours) and PhD in Physical Chemistry from University College London (1977–1984). His career spans over three decades at Imperial College, progressing from Lecturer (1988) to Senior Lecturer (1995) before his current professorial role since 2001. Research interests focus on thermophysical properties of fluids, particularly in carbon capture, hydrogen storage, and energy systems. Key areas include phase behavior of CO2 and hydrogen mixtures, interfacial properties of reservoir minerals, and fluid dynamics under extreme conditions. His work integrates experimental measurements with computational modeling to improve understanding of energy and environmental processes. Publications emphasize experimental methodologies and theoretical frameworks for fluid behavior, with recent emphasis on CO2 mineralization, hydrogen infrastructure, and subsurface storage solutions. His contributions address challenges in climate mitigation technologies and energy transition systems. Labs/Teams: Active in the Thermophysics Laboratory and collaborates with interdisciplinary groups at Energy Futures Lab and the Institute for Molecular Science and Engineering. His research supports industrial partnerships in clean energy innovation.

• Thermophysical Properties of Fluids
• Carbon Dioxide Capture and Storage
• Hydrogen Production and Storage
• +5 more

Mijndert Van der Spek is an Associate Professor at the School of Engineering & Physical Sciences, Heriot-Watt University, within the Institute of Mechanical, Process & Energy Engineering. He holds a PhD from the Copernicus Institute of Sustainable Development and has postdoctoral experience at ETH Zürich's Separation Processes Laboratory. He teaches Process Design B and supervises MEng research projects. His research focuses on techno-economic and environmental analysis of carbon capture and storage (CCS), CO2 utilization (CCU), and direct air capture (DAC). Key areas include process modeling, net-zero systems, and uncertainty quantification. He advocates for improved assessment methods to guide policy and industry decisions. Publications span 2014–2025, emphasizing CO2 capture technologies, lifecycle assessments, and decarbonization pathways for industries like steel and cement. His work addresses challenges in solvent degradation, system integration, and cost reduction strategies. Collaborations involve global institutions, contributing to UN SDGs like Climate Action and Affordable Clean Energy. He emphasizes capacity-building in CDR through academic partnerships and policy engagement.

• Carbon Capture and Storage (CCS)
• Climate Change Mitigation Technologies
• Techno-Economic Analysis
• +4 more

Ana Gouveia Gil is a researcher at Newcastle University , focusing on advanced materials for environmental applications. Her work primarily addresses carbon capture technologies, specifically through membrane-based systems. Her research centers on the design and optimization of dual-phase molten salt-ceramic membranes to enhance carbon dioxide permeation rates, aligning with global efforts to reduce greenhouse gas emissions. This area intersects with Chemical Engineering and Materials Science . Recent publications indicate a specialized interest in the interplay between molten carbonate dynamics and ceramic membrane stability. While no explicit awards, grants, or institutional affiliations beyond Newcastle University are listed, her work contributes to the growing field of sustainable energy technologies.

• Chemical Engineering
• Materials Science
• Carbon Capture
• +2 more

Professor Mohamed Aroua is affiliated with Lancaster University in the School of Engineering , focusing on chemical and environmental engineering research. His work addresses critical challenges in carbon capture, sustainable development, and wastewater management. University: Lancaster University School: School of Engineering Academic Rank: Professor Research interests include developing advanced nanomaterials for CO2 absorption, optimizing waste-to-resource processes, and applying P-graph modeling for sustainable waste management systems. His recent publications highlight innovations in aqueous amine solvents, MXene-based nanosuspensions, and synergistic phosphorus recovery methods. Current studies emphasize scalable solutions for carbon capture technologies and wastewater treatment strategies aligned with circular economy principles. He collaborates extensively within the Chemical Engineering Research Group. Contact: m.aroua@lancaster.ac.uk

• Chemical Engineering
• Environmental Engineering
• Carbon Capture and Storage
• +3 more

Professor Ye Huang is a leading academic at Ulster University , serving as Professor of Clean Coal Technologies within the Belfast School of Architecture and the Built Environment . He contributes to research in carbon capture and storage, energy system modeling, and fossil fuel power plant optimization, aligning with the United Nations Sustainable Development Goals . 30+ years of expertise in fossil fuel combustion scenario analysis Specializes in multi-partner collaborative projects for fossil fuel and biomass/waste technologies Extensive experience in techno-economic analysis and life cycle assessment His research spans clean coal technologies , renewable energy applications , and carbon footprint reduction , funded by EU Framework Programmes (FP7, H2020), SFI , and EPSRC . Notable projects include DECARBIT, SCARLET, DIRPRIMCOAL, LIG2LIQ, CLARA, and SPIRE I/II. Recent publications highlight advancements in CO2 capture for cement plants, net-zero farming via trigeneration, and biomass pretreatment for ethanol production. His work emphasizes energy transition , sustainable industrial processes , and clean technology development . Scientific Awards : Member of the Energy Institute Chartered Engineer Fellow of the Higher Education Academy Grants and Collaborations : Principal Investigator (PI) for projects such as Sustainable Production of 3-Hydroxypropionic Acid from Biomass (2024–2028) and ABSALT (2021–2024). Collaborates with institutions across the UK and EU, focusing on renewable energy systems and waste valorization .

• Clean Coal Technologies
• Carbon Capture and Storage
• Energy System Modeling
• +4 more

Dr. Chatura Goonesinghe ( cdg40@cam.ac.uk ) is a Herchel Smith Research Fellow at the Yusuf Hamied Department of Chemistry , University of Cambridge. He earned his BSc (First Class Honours) in Chemistry from the University of Colombo and a PhD in Chemistry from the University of British Columbia (2023). Education: BSc in Chemistry, First Class Honours (University of Colombo) PhD in Chemistry (University of British Columbia, 2023) His research focuses on bio-inorganic hybrid catalysts within the Mateo Sánchez Lab, integrating homogeneous metal catalysts with protein scaffolds through directed evolution to create artificial metalloenzymes. This work aims to achieve unprecedented control over stereo- and regioselectivity in catalytic systems, bridging molecular biology and inorganic chemistry. Recent publications highlight his expertise in indium-based catalysis , including cationic indium complexes for polymerization reactions, CO2/epoxide copolymerization, and ligand engineering to enhance reactivity. Key themes include hemilabile ligands, thermoresponsive mechanisms, and sustainable polymer synthesis. Scientific Awards: UBC Four Year Fellowship Gladys Estella Laird Research Fellowship

• Catalysis
• Inorganic Chemistry
• Bio-inorganic Chemistry
• +4 more

Dr. Abhishek Lahiri is a Senior Lecturer in Chemical Engineering at Brunel University London, affiliated with the College of Engineering, Design and Physical Sciences. His research focuses on the electrochemical synthesis of functional materials using ionic liquids deep eutectic solvents aqueous/organic electrolytes for energy storage (Li, Na, Zn, Al batteries) and electrocatalysis (hydrogen evolution, CO2 capture). He also explores sustainable metal extraction from e-waste and battery recycling technologies. Recent work includes dendrite-free Zn deposition bio-ionic liquid electrolytes mesoporous conducting polymers to enhance battery performance. As Principal Investigator, he leads grants from EPSRC, BBSRC, and Royal Society totaling over £770k, targeting innovations like Zn-ion capacitors and sustainable metal recovery. Scientific contributions: Member of the Electrochemical Society (ECS) Over 71 publications Consultancy projects on electroplating and hydrogen production

• Electrochemistry
• Energy Storage
• Electrocatalysis
• +6 more

Dr. Kuo-Liang Chuang is a Research Associate at the School of Engineering , University of Edinburgh , affiliated with the Materials and Processes research institute. His work focuses on advanced membrane technologies for environmental and industrial applications. Research Interests Dr. Chuang's research spans Membrane Technology Gas Separation Materials Science Environmental Engineering Nanotechnology Chemical Engineering . He specializes in developing innovative membranes for CO2 capture, water purification, and sustainable material synthesis. Publication Trends Recent publications highlight his expertise in CO2/N2 separation Antifouling membrane design Hybrid matrix membranes Waste material utilization Metal-Organic Frameworks (MOFs) Biocellulose nanofiber applications . His work emphasizes experimental synthesis, performance optimization, and environmental sustainability. Collaborations & Location Based in 1.196E Fleeming Jenkin , he collaborates on projects involving membrane characterization, defect engineering, and industrial wastewater treatment.

• Membrane Technology
• Gas Separation
• Materials Science
• +3 more

Stephen Carr is a Lecturer in Energy Physics at the **University of South Wales**, part of the **Faculty of Computing, Engineering and Science**. He holds an MPhys in Physics from the University of Oxford (2004) and a PhD from the University of Glamorgan (2005), focusing on integrating renewable technologies into electricity networks. His research emphasizes hydrogen energy storage, renewable energy systems, and optimizing wind power integration. He has contributed to projects like the **CymruH2Wales initiative**, advancing hydrogen storage modeling and control. His work bridges theoretical research and practical applications in energy transition. **Research Interests**: Hydrogen production and storage technologies Wind power integration and grid stability Electrochemical systems for energy conversion Carbon capture and utilization **Key Publications**: His recent work addresses hydrogen recovery from industrial gases, electrolysis optimization, and hydrogen’s role in decarbonization. Earlier studies include solar-hydrogen systems, optimal hydrogen storage for wind grids, and adaptive power management strategies. **Labs/Teams**: Active in the CymruH2Wales energy storage project and affiliated with the **Baglan Energy Park** research facilities.

• Renewable Energy
• Hydrogen Energy Storage
• Energy Systems Integration
• +3 more