Dr. Wee-Liat Ong is an Adjunct Associate Professor at Zhejiang University's College of Energy Engineering (ZJU-UIUC Institute). He holds a Ph.D. in Mechanical Engineering from Carnegie Mellon University (2015) and previously served as a Postdoctoral Researcher at Columbia University's Chemistry Department (2015-2017). His research focuses on nanoscale heat transfer, energy conversions, and hybrid materials, with notable contributions to thermal transport in organic-inorganic hybrids and superatomic crystals. Education: Ph.D. Mechanical Engineering (Carnegie Mellon University, 2015); Professional Experience: Research Engineer at Institute of Microelectronics, Singapore (2005-2007). Research Interests: Nanoscale Heat Transfer, Energy Conversions, Material Science, BioMEMs, and Hydrogen Power Safety. His work bridges materials science and thermal engineering, emphasizing novel hybrid materials for energy applications. Notable Achievements: Best Class Teacher Award (2019), Royal Society of Arts Fellowship (2019). His publications span high-impact journals like Journal of the American Chemical Society and Nano Letters , addressing thermal transport, superatomic crystal behavior, and hydrogen energy safety.
Michael Williams is a Clinical Associate Professor at Queen's University Belfast, affiliated with the School of Medicine, Dentistry and Biomedical Sciences. He holds external roles as a Visiting Professor in Optometry at the University of Ulster (since 2021) and as the RCOphth Regional Education Advisor for Northern Ireland (since 2020), organizing postgraduate ophthalmology classes. His research focuses on retinal diseases, particularly macular edema and age-related macular degeneration, with leadership in clinical trials (e.g., BALATON and COMINO for faricimab). He also explores links between Alzheimer’s disease and retinal pathology, as seen in studies on retinal drusen and complement factor H. Williams is active in medical education, supervising doctoral, master’s, and diploma students in optometry and ophthalmic specialties. He delivers annual teaching sessions on medical retina to optometrists and chairs conferences like the QUB InterSim Conference. Awards include the BHSCT Certificate of Recognition (2024), Compassion in Simulation Award (2023), and James Magill Trophy (2008). His work aligns with UN Sustainable Development Goals related to health and well-being. Key contributions include pioneering preservative-removed eye drop formulations, evaluating simulation-based training for ophthalmology residents, and developing patient-centered tools like the Open Symptom Framework. He has published extensively in ophthalmology, neurology, and medical education journals, with over 87 research outputs and 90 professional activities since 2004.
Fabio Sgarbossa is a Professor of Industrial Logistics at the Norwegian University of Science and Technology (NTNU), based in the Department of Mechanical and Industrial Engineering within the Faculty of Engineering. He holds a Master’s in Management Engineering (2005) and a PhD in Industrial Engineering (2010) from the University of Padova, Italy. His research focuses on design and management of industrial logistics systems, supply chain optimization, digitalization in logistics, materials handling, maintenance strategies, and human factors in production systems. He leads the Lab Logistics 4.0 at NTNU and is actively involved in European and national research projects. He serves as an Associate Editor for the International Journal of Production Research and contributes to editorial boards of high-impact journals like the International Journal of Production Economics . Key areas of expertise include production management, supply chain viability, Industry 4.0 technologies (e.g., autonomous mobile robots, additive manufacturing), and human-centric system design. He has authored/co-authored over 130 publications, with an h-index of 31 (Scopus, 2022). Recent work explores topics such as renewable hydrogen supply chains, assistive technologies for assembly tasks, and collaborative logistics in rural contexts. His research integrates theoretical frameworks with practical applications, addressing challenges in smart manufacturing, circular economy, and resilience in supply chains. He collaborates with industry partners to translate academic insights into actionable solutions for logistics and production systems.
Dr. Tobias Huber-Loyola is a Research Fellow and Junior Research Group Leader at the University of Würzburg's Chair for Applied Physics, sponsored by the BMBF “Quantum Futur” initiative. He leads the “Quantum Dots” group, focusing on developing single and entangled photon sources for quantum computing and communication. His research includes integrated quantum photonics, nanophotonic devices, and light-matter interaction. He has held roles since 2022 as group leader and previously as a postdoc at the University of Maryland and NIST. Education : PhD in Experimental Physics (2016), University of Innsbruck MSc and BSc in Physics (2009–2011, 2008–2009), University of Innsbruck Research Interests : Quantum dots as photon sources, quantum networks, non-classical states of light, cavity-enhanced emission, and hybrid quantum systems. His group works on optimizing quantum dot placement in nanophotonic cavities and fiber coupling for scalable applications. Publications : Focus on quantum dot photonics, including cavity design, entangled photon generation, and telecom-compatible devices. Recent works address strain-tunable sources and deterministic storage in quantum memories. Teaching : Taught lab courses and exercise classes in optics, quantum physics, and experimental methods since 2020. Labs/Teams : Part of the Würzburg-Wroclaw Nanophotonics Center and the Cluster of Excellence ctd.qmat. Collaborates internationally on quantum technologies and materials.
Dylan Sherman is a DPhil (Doctor of Philosophy) Researcher at the University of Oxford, affiliated with the Materials Engineering Department and Trinity College. His research focuses on designing and engineering MOF-tronic nanosheets—3D Metal-Organic Framework (MOF) materials with tunable electrical and optical properties. His doctoral studies are supported by the prestigious 2020 Australian BHP Sir John Monash Scholarship and the Oxford Clarendon Scholarship. Before pursuing his DPhil, Dylan earned a Bachelor of Science (Advanced) with the University Medal and First Class Honours from the University of Sydney, where he investigated redox-active multifunctional MOFs. He also holds a Bachelor of Laws (Honours) and practiced law at Clayton Utz, demonstrating interdisciplinary expertise in both STEM and legal fields. His current research interests span nanoscale materials engineering, MOFs, photonics/optoelectronics, and gas storage/separation. Key projects include developing MOF-tronic nanosheets for functional applications and exploring their photophysical and mechanical behaviors. His work has been published in high-impact journals like Nature Communications and ChemPhysChem . Awards include scholarships from the Australian BHP Sir John Monash Foundation and Oxford Clarendon. His research aligns with the Materials Engineering & Materials Characterization (MMC) Lab at Oxford, where he contributes to advancing functional materials science.
Thomas Heinis is a Professor in Computing at Imperial College London. He leads the SCALE Lab and conducts research in DNA data storage and high-performance data analytics. His academic journey includes a Ph.D. and M.Sc. in Computer Science from ETH Zürich, a Postdoctoral fellowship at EPFL’s DIAS Lab, and a Fulbright Scholarship at Purdue University. He specializes in scalable data management techniques for scientific and spatial datasets, novel hardware optimization, and interdisciplinary applications such as medical data analysis. Education: Ph.D. and M.Sc. in Computer Science, Swiss Federal Institute of Technology in Zürich (ETH Zürich) Postdoctoral Fellow, DIAS Lab, EPFL Fulbright Scholarship, Purdue University (2002–2004) Research Interests: Big Data and Distributed Processing Spatial Data Indexing and Visualization High-Performance Computing (HPC) Data Analytics Data Management on Novel Hardware (e.g., neuromorphic systems) Synthetic DNA Storage Technology Interdisciplinary Applications in Medicine and Neuroscience Recent Work Trends: Heinis’s publications emphasize innovative storage solutions like Motif-based DNA encoding, efficient spatial indexing algorithms (e.g., FLAT, SCOUT, TOUCH), and machine learning-driven approaches for healthcare and scientific data analysis. His work bridges computational methods with real-world applications in neuroscience, medicine, and environmental science. Scientific Awards: SystemsX Interdisciplinary Ph.D. Fellowship (2007) Finalist, Venture Leaders Entrepreneurship Competition (2007) Finalist, Purdue Burton D. Morgan Entrepreneurship Competition (2003) Fulbright Scholarship (2002–2004) Advising & Grants: Supervises Ph.D. students in scientific data management, spatial data, and DNA storage. Funding opportunities include Marie-Curie post-doctoral fellowships, CSC Imperial Scholarships, and others. His lab actively collaborates with institutions like the Blue Brain Project and explores scalable tools for data-driven research. Labs & Teams: Leader of the SCALE Lab at Imperial College. Collaborations with the Blue Brain Project (BBP) on neuroscientific data management.
Dr. Daniel Goldsmith holds a Doctorate in Model-Based Transmission Reduction and Virtual Sensing in Wireless Sensor Networks (Coventry University, 2013) and a BSc in Computer Science (Coventry University, 2007). He specializes in interdisciplinary research at the intersection of wireless sensor networks, hydraulic engineering, and environmental monitoring. His work spans applications ranging from smart water distribution systems to augmented reality museum exhibits. Key contributions include Fog Computing gateways, energy behavior analysis in tropical academic buildings, and hydraulic model calibration using virtual sensors. Goldsmith's research emphasizes practical implementations such as Singapore's WaterWiSe@SG testbed and thermal monitoring for aerospace turbine engines. His publications reflect a focus on sensor network optimization, data mining, and spatiotemporal field monitoring frameworks. Education: Doctorate: Model-Based Transmission Reduction and Virtual Sensing in Wireless Sensor Networks (2013) BSc Computer Science (1st Class Honors) (2007) Research Interests: Wireless sensor networks and protocol optimization Fog computing and edge computing architectures Hydraulic modeling and smart water infrastructure Augmented reality for environmental and cultural applications Data mining for IoT systems Energy behavior analysis in built environments Notable Work Trends: His publications from 2007–2017 show a progression from early mixed-reality applications to advanced sensor network frameworks, culminating in impactful work on hydraulic systems and continuous environmental monitoring. The 2017 Fog of Things paper demonstrates ongoing engagement with emerging distributed computing paradigms. Labs & Collaborations: Involved in Coventry University's environmental sensor networks initiatives and international partnerships like Singapore's water distribution testbed. His work frequently bridges academic research with industrial applications through collaborative projects.
Professor Richard Palmer is a distinguished academic at Swansea University's Faculty of Science and Engineering, where he serves as Head of the Nanomaterials Lab within the Department of Engineering. He also holds a professorship at Nanjing University's School of Physics in China. With extensive experience in nanoscience research, Professor Palmer has established himself as a leading figure in nanomaterials and nanotechnology. Professor, Department of Engineering, Swansea University (2017-present) Head, Nanomaterials Lab, Swansea University (2017-present) Professor, School of Physics, Nanjing University, China (2015-present) Editor-in-Chief, Advances in Physics: X (2014-present) Professor Palmer earned his PhD in Physics from Cambridge University's Cavendish Laboratory and completed his undergraduate studies with First Class honors in Natural Sciences (Physics and Theoretical Physics) at Trinity Hall, Cambridge. His academic journey includes prestigious fellowships from the Royal Society and the 1851 Royal Commission. Professor Palmer's research focuses on nanoscience and nanotechnology , with particular expertise in nanomaterials, nanoclusters, nanocatalysts, nanosensors, and nanophotonics. His work explores neuromorphic systems for information processing, surface science including atomic manipulation, and innovations in instrumentation. The Nanomaterials Lab investigates nanoclusters (nanoparticles) using aberration-corrected electron microscopy, studying their atomic structure, metastability, and dynamics, with applications spanning catalysis, biomedicine, sensors, photonics, energy generation and storage, environmental applications, and semiconductor materials and devices. His extensive publication record shows consistent research output in nanomaterials characterization and applications, with recent work focusing on structural analysis of nanoclusters, plasmonic metasurfaces, environmental applications of nanomaterials, and neuromorphic computing systems. Professor Palmer's research demonstrates a strong interdisciplinary approach combining physics, materials science, and engineering. IOP Boys Medal dr. h.c. Hasselt University BVC Yarwood Medal EPSRC Fellowship Fellow of the Institute of Physics (IOP) Fellow of the Royal Society of Chemistry (RSC) Fellow of the Learned Society of Wales (LSW) Professor Palmer leads the Nanomaterials Lab, which comprises 3 faculty members (including himself), 3 postdocs, 8 graduate students, and 6 honorary staff members. His research has resulted in over 400 publications with more than 13,000 citations and an h-index of 58. He has developed 18 families of patent applications and founded three spin-out companies: Inanovate, Irresistible Materials, and Grove Nanomaterials. His research has been supported by numerous grants, including an EPSRC Fellowship. The Nanomaterials Lab is equipped with state-of-the-art facilities including 4 nanoparticle beam sources, STEM, XPS, SEM, AFM, and 4-probe UHV STM. The lab operates across two locations: the Department of Engineering at Swansea University's Bay Campus and the Centre for Nanohealth at Singleton Campus. Professor Palmer's team actively investigates nanocluster formation, stability, and applications, with a strong emphasis on translating fundamental research into practical technologies.
Dr Ruth Wood is a Senior Lecturer in Environment and Climate Change at the University of Manchester, affiliated with the Civil Engineering and Management department. She is a Research Fellow at the Tyndall Centre for Climate Change Research and Co-Director of the EPSRC Power Networks Centre for Doctoral Training. Her work focuses on emissions accounting, energy systems, and infrastructure resilience. She holds a first-class MSci in Chemistry (Environmental Science) from the University of Bristol (2001) and a PhD in environmental science from the University of East Anglia (2007). Research Interests: Climate mitigation strategies, energy demand modeling, scenario development for interdisciplinary projects, and societal-infrastructure interactions. Notable projects include the MYStore Project (energy storage) and RESNET (resilient electricity networks). She has contributed to the Climate Change Risk Assessment 2017, analyzing UK energy system vulnerabilities. Scientific Contributions: Awarded the Best Paper Prize (European Transport Conference 2008) for aviation emissions work. Over 68 peer-reviewed publications and reports, including work on decarbonizing aviation/shipping sectors and low-carbon transitions. Active in policy engagement, public lectures, and climate communication via media and comedy platforms. Collaborations: Involved in projects like the Tyndall Manchester initiative and SuLeD-BIM (sustainable design modeling). Research spans global climate policy, energy infrastructure resilience, and sustainable food systems.
Rob Davies is an Associate Professor in the Department of Chemistry at Imperial College London, specializing in organometallic and coordination chemistry. His research focuses on sustainable copper-based catalyst systems and Metal Organic Framework (MOF) materials for catalysis, gas storage/capture (including CO₂), and medical applications. He holds affiliations with the Energy Futures Lab and the Synthesis and Catalysis groups. Education: BSc (First Class) in Chemistry from the University of Bristol PhD in Chemistry from St John’s College, University of Cambridge Career: Research Fellowship at St Catharine’s College, Cambridge Former Governors' Lectureship at Imperial College London His research interests emphasize green chemistry, sustainable catalytic systems, and advanced materials for environmental and industrial applications. While no specific articles are listed here, his work aligns with broader themes in materials engineering and theoretical chemistry. He currently oversees PhD and postdoctoral positions, inviting high-caliber candidates to contact him directly. Lab/Team: Davies Group (Department of Chemistry, Imperial College London).
Alexander G. Kemp is Professor of Petroleum Economics and Director of the Aberdeen Centre for Research in Energy Economics and Finance (ACREEF) at the University of Aberdeen Business School. With a distinguished career spanning over five decades, Professor Kemp has established himself as a leading authority in petroleum economics, particularly focusing on North Sea oil and gas development, taxation systems, and energy policy. Professor Kemp earned his MA with First Class Honours in Economic Science from the University of Aberdeen (1958-1962), where he was awarded several prizes. His academic journey includes previous positions as Lecturer, Senior Lecturer, and Reader at Aberdeen, following professional experience with Shell and academic appointments at the University of Strathclyde and University of Nairobi. Professor Kemp's research focuses on petroleum economics with special reference to licensing and taxation issues in the oil and gas industry. His work examines the economic viability of North Sea developments, fiscal regimes, decommissioning economics, and the challenges of energy transition. He has pioneered analysis of marginal field development, cluster economics, and the impact of regulatory frameworks on investment decisions. His research bridges theoretical economic principles with practical industry applications, providing critical insights for policymakers and industry stakeholders. His recent publications demonstrate a clear evolution from traditional petroleum economics toward addressing contemporary challenges including energy transition, carbon pricing, and the economic implications of environmental regulations. While maintaining his focus on the UK Continental Shelf, his work increasingly addresses global energy challenges, resource governance, and sustainable development frameworks within the oil and gas sector. Principal's Award for Excellence, University of Aberdeen (1993) Alick Buchanan-Smith Memorial Award for Personal Achievement and Contribution to Offshore Oil and Gas Industry (1999) Fellow of the Royal Society of Edinburgh (FRSE) (2001) OBE for services to oil and gas industries (2006) SPE Offshore Achievement Awards Lifetime Achievement Award (2012) Press and Journal Gold Awards Lifetime Achievement Award (2015) Abdullah Bin Hamad Al-Attiyah International Foundation Lifetime Achievement Award (2022) Professor Kemp has advised numerous governments, international organizations, and oil companies throughout his career. He served as specialist adviser to the UK House of Commons Select Committee on Energy (1980-1992, 2004, 2009), was a member of the UK Government Energy Advisory Panel (1993-2003), and contributed to the Council of Economic Advisers to the Scottish Government (2007-2011). His major funded research projects, totaling millions of pounds, have been supported by major oil companies, Scottish Enterprise, government bodies, and international organizations. He authored the two-volume 'Official History of North Sea Oil and Gas' commissioned by the Prime Minister. As Director of ACREEF, Professor Kemp leads research on energy economics and finance, with particular focus on North Sea developments. The center produces the influential North Sea Paper Series and collaborates with industry and government on critical energy economics issues. His work continues to shape policy discussions around maximizing economic recovery from UKCS assets while addressing the challenges of energy transition and environmental sustainability.
Ronan Bolton is Professor of Sustainable Energy at the University of Edinburgh's School of Social and Political Science. His research examines the interconnected policy, market and regulatory challenges of transforming carbon-based energy systems. He has held visiting positions at the University of Melbourne and Leibniz Institute for Regional Development and Structural Planning in Berlin. His academic credentials include: PhD in Energy Policy from the University of Leeds MSc (Distinction) in Environmental Sustainability from the University of Edinburgh BEng (First Class) in Mechanical Engineering from the University of Galway Bolton's primary research focuses on electricity market design and energy network regulation, with particular expertise in the history and development of energy liberalization processes. His influential book 'Making Energy Markets: The Origins of Electricity Liberalisation in Europe' established him as a leading scholar in energy policy history. Recent work examines seasonal thermal energy storage, electricity distribution networks, and regional energy planning strategies for net zero transitions. His publications reveal a consistent focus on bridging historical policy analysis with contemporary energy transition challenges, particularly examining how past liberalization reforms can inform current net zero policy development. Bolton's work frequently addresses governance frameworks for energy transitions across European contexts. He has led significant research projects including a UKRI-funded study on electricity distribution networks and transitions. His policy contributions extend to UK Energy Research Centre reports on energy storage pathways, local energy systems, and strategic planning for electricity networks. Bolton actively engages with regulatory bodies and policymakers through his research on Ofgem's consumer value proposition and distribution network price controls. Bolton supervises PhD students in Energy Policy, Electricity Market Design, Energy Regulation, Political Economy of Energy, and Sustainability Transitions within the Science, Technology and Innovation Studies program. His collaborative research spans multiple institutions including the University of Melbourne and European partners through EU Commission projects.
Mervyn Smyth is a Reader in Solar Thermal Technologies at Ulster University's Faculty of Computing, Engineering and the Built Environment. He holds a 1st Class BEng (Hons) and PhD in solar energy research from Ulster University, with prior industry experience in HVAC. His academic roles include Lecturer at Ulster University, Senior Lecturer/Teaching Fellow at Victoria University of Wellington, and positions at Griffith University and Domaine Carneros Estate. Reader in Solar Thermal Technologies, Ulster University (2008-present) Lecturer in Building Services Engineering, Ulster University Senior Lecturer/Teaching Fellow, Victoria University of Wellington Director of SolaForm Ltd and SwII Ltd Dr. Smyth's research spans solar thermal systems, photovoltaics, anaerobic digestion, and building integrated solar technologies. He has over 25 years of experience in experimental characterization of solar energy systems and passive solar design for agriculture. His work includes collaborations on thermal diodes for sub-Saharan solar deployment and façade-integrated switchable insulation. Dr. Smyth contributes to international projects such as SolaFin2Go and SwanaSmartStore Digital Kgotla, focusing on sustainable energy in Africa. He serves on editorial boards and external examination committees.
Dr. Vivek Bharadwaj is a Staff Scientist in the Computational Molecular Science department at the National Renewable Energy Laboratory (NREL) , where he has worked since 2018. His research integrates computational molecular modeling , quantum mechanics , and finite element methods to advance bioenergy technologies and chemical conversion systems . PhD (2015): Chemical Engineering, Colorado School of Mines Master's (2011): Chemical Engineering, Colorado School of Mines Bachelor's (2008): Chemical Engineering, Sardar Vallabhbhai National Institute of Technology Surat Vivek's research focuses on: Elucidating biomass biosynthesis mechanisms in plants Investigating the biophysics of plant cell wall pectins Modeling enzymatic biomass deconstruction pathways Developing intrinsic kinetics models for catalytic systems Studying electron transport in biological systems His publications demonstrate expertise in molecular dynamics , machine learning applications in enzyme analysis, and catalyst surface characterization . Key collaborations include work with the Center for Bioenergy Innovation and Consortium for Computational Physics and Chemistry . 2015: American Chemical Society Chemical Computing Group Research Excellence Award 2014: NVIDIA Best GPU Poster Award
Prof. Dr. med. Ulrike Seifert is a faculty member at the Institute of Biochemistry , University of Greifswald , with dual specialization in Biochemistry and Hygiene/Environmental Medicine . Her research focuses on immunoproteasomes , antigen processing , and virology , particularly in the context of SARS-CoV-2 and hepatitis C virus infections. Education/Training : Dr. med. (medical doctorate), Univ.-Prof. (University Professor) Her recent work explores the role of proteasome systems in immune evasion and therapeutic targeting. Publications from 2025–2021 span MHC class I epitope generation , interferon-induced proteasome remodeling , and multidrug-resistant organism dynamics . She collaborates with researchers in hematology , oncology , and clinical microbiology , with a strong emphasis on translational research linking basic science to clinical applications. Key trends in her publications include: Proteasome modulation in melanoma and leukemia Role of immunoproteasome in viral infections and autoimmune diseases Investigations into environmental pathogen transmission (e.g., surface resilience, glove use, and SARS-CoV-2 ) Her team at the Institute of Biochemistry integrates biochemical assays with bioinformatics (e.g., DiscovEpi tool) to advance understanding of immune pathways and pathogen interactions.
