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Professor Jim Haseloff is a faculty member at the University of Cambridge, serving as Head of the Synthetic Biology for Engineering Plant Growth Group within the Department of Plant Sciences, School of Biological Sciences. His research focuses on applying engineering principles to construct new genetic systems in plants, with particular emphasis on using Marchantia polymorpha as a model system for understanding and engineering plant growth and development. Professor Haseloff's research interests span synthetic biology, genetic circuit design, plant transformation technologies, and the development of low-cost tools for biological research. His laboratory develops novel DNA tools and imaging techniques for visualizing, manipulating, and modeling genetic interactions and morphogenesis in plants. His work bridges the gap between fundamental plant biology and applied engineering approaches to reprogram plant development and physiology. The lab has established Marchantia polymorpha as a simplified model system with a streamlined genome, haploid genetics, and an open form of development ideal for quantitative analysis. Analysis of Professor Haseloff's recent publications reveals a strong focus on advancing the Marchantia model system for synthetic biology applications. His work spans genetic tool development, chloroplast engineering, plant sensing technologies, and fundamental developmental processes. Notably, his research increasingly integrates low-cost sensing technologies with traditional plant biology, reflecting his commitment to making synthetic biology more accessible worldwide. Professor Haseloff is actively involved in several major initiatives including OpenPlant (promoting open technologies for plant synthetic biology), Biomaker (funding construction of low-cost devices for biology), and the Engineering Biology IRC. He has taught undergraduate courses on Plant and Microbial Sciences (NST PMS 1B), Plant Development (NST CDB 1B), and Synthetic Biology (NST PS 2), with extensive teaching materials publicly available online. His laboratory has pioneered techniques for cell-free expression systems that are 200-400 times cheaper than commercial versions, low-cost microreactors using 3D-printed components, and innovative in vivo plant sensing devices. The group has developed extensive resources for the plant synthetic biology community, including standardized DNA parts, microscopy techniques, and educational materials for no-code programming in biology.

• Synthetic Biology
• Plant Engineering
• Genetic Circuits
• +7 more

Professor James Sullivan is a corrosion science expert at the Faculty of Science and Engineering, Swansea University , specializing in zinc alloys for galvanic protection. He developed an in-situ time-lapse imaging technique to visualize corrosion mechanisms, presented at the Gordon Research Conference in 2012. As co-director of the Materials Academy , he secured £15M in grants to train industry professionals and researchers, collaborating with Tata Steel, European Space Agency, and The Royal Mint. Research Focus: Microstructure-corrosion relationships in metallic coatings Key Projects: Novel zinc alloy coatings, additive manufacturing corrosion performance His recent publications analyze Zn-Mg-Al and Zn-Mg-Ca systems , antimony/germanium alloying effects, and additive manufacturing material optimization. Supervision includes PhD/EngD students working on galvanic coatings, high-entropy alloys, and sustainable materials. Teaching: Modules like Materials Degradation and Protection and Interpersonal Skills for Engineers .

• Corrosion Science
• Materials Degradation
• Zinc Alloys
• +3 more

Professor Michael De Volder is a Fellow and College Lecturer at St John's College, University of Cambridge, holding the position of Professor of Advanced Materials Engineering in the Department of Engineering. His research focuses on energy storage solutions, nanotechnology, and scalable manufacturing methods for sustainable battery technologies. Belgian Royal Academy Laureate Co-founder of Echion Technologies (niobium-based anode materials) Expert in Li-ion/Zn-ion battery innovation Research activities center on improving battery sustainability through novel synthesis techniques, extending battery lifetime via structural optimization, and developing high-energy-density materials. His work spans nanoscale engineering, electrode design, and fundamental electrochemical investigations. Scientific publications from 2022-2025 demonstrate expertise in: Li-ion/Zn-ion battery systems, nanotube integration, electrode manufacturing, and degradation analysis. Recent work explores mechanochromic displays, dual-gradient electrodes, and aqueous-organic electrolyte formulations. Belgian Royal Academy Laureate Co-founder of battery technology startup Echion Technologies

• Energy Storage Systems
• Nanotechnology
• Battery Materials Engineering
• +2 more

Professor Allan Rennie serves as Professor in Manufacturing Engineering at Lancaster University's School of Engineering and holds the administrative position of Associate Dean for Engagement within the Faculty of Science and Technology. With a career spanning over 30 years since initiating work in additive manufacturing during the mid-1990s, he has established himself as a leading figure in industrial applications of advanced manufacturing technologies across diverse sectors. His research expertise centers on Additive Manufacturing , Engineering Design , and Manufacturing Process Optimization , with current specializations including design for additive manufacturing (as co-leader of the UK's EPSRC DfAM Network), industrial digitalisation of manufacturing processes, and innovative tooling development using metallic and hybrid approaches. Rennie has significantly contributed to Engineering Education , particularly examining the integration of business and management principles into engineering curricula and analyzing the impacts of online/hybrid delivery modes on student engagement and graduate employability following the COVID-19 pandemic. Recent publication trends reveal Rennie's dual focus on practical manufacturing applications and scholarly analysis of technological evolution. His 2025 bibliometric study maps a decade of Design for Additive Manufacturing research, while his structural analysis of musical instruments demonstrates cross-disciplinary applications of manufacturing techniques. These works reflect his commitment to both advancing manufacturing technology and documenting its academic trajectory through rigorous analysis. Professor Rennie actively supervises PhD candidates including Jenny Roberts, Eunike Sembiring, and Joe Taylor while leading substantial research projects such as the EPSRC DfAM Network (2020-2023), Automating Design for Additive Manufacture with AI (2023-2024), and multiple Engineers in Business Competitions. His extensive grant portfolio spans industrial digitalization, sustainable manufacturing, and educational innovation, with notable projects including RENDER (powder recycling), TecHnology and EntrepreneUrship Education, and Production Capable Additive Manufacturing of Polymers. Rennie contributes to Lancaster's research ecosystem through affiliations with the Centre for Global Eco-innovation, Energy Lancaster initiative, and the Lancaster Product Development Unit. These platforms enable him to bridge academic research with industrial applications across multiple sectors, particularly supporting his work on sustainable manufacturing practices, technology commercialization, and industry engagement strategies that translate research into real-world impact.

• Additive Manufacturing
• Engineering Design
• Manufacturing Process Optimization
• +3 more

Dr. Andrew Hamilton is an Associate Professor at the University of Southampton specializing in materials science and engineering with a focus on additive manufacturing and advanced materials characterization. His research spans multiple disciplines including mechanical engineering, biomedical applications, and advanced manufacturing techniques. His primary research interests include: Development and mechanical characterization of novel materials for structural and multifunctional applications Additive manufacturing (AM) of metamaterials with controlled porous architectures Characterization of porous materials including effects of anisotropy and heterogeneity Failure analysis of AM metals and bimaterial metal joints Layer-by-layer (LbL) assembly of multilayer coatings for biocompatibility and antimicrobial activity Dr. Hamilton's recent publications demonstrate a strong focus on applying additive manufacturing techniques to solve complex engineering challenges across multiple domains. His work spans from fundamental materials characterization to applied biomedical and aerospace applications, with particular emphasis on advanced composite materials, structural health monitoring, biomedical applications of 3D printing, failure mechanisms in power generation components, novel coating technologies, and optimization of AM processes. As an active PhD supervisor, he currently mentors nine doctoral students and has previously supervised successful candidates. His collaborative approach is evident through his membership in multiple research groups including the Engineering Materials and Surface Engineering Group, Bioengineering Group, Institute for Life Sciences, and Interdisciplinary Musculoskeletal Health. Dr. Hamilton has led significant research projects including those funded by EPSRC and the European Union, with current work focused on high-temperature failure processes in Ni base superalloys. His interdisciplinary research bridges traditional disciplinary boundaries to address complex materials challenges with innovative solutions across aerospace, biomedical engineering, and advanced manufacturing sectors.

• Additive Manufacturing
• Materials Science
• Mechanical Characterization
• +4 more

Luca Susmel is a Professor of Structural Integrity and Transforming Lives Fellow at Sheffield Hallam University. His expertise spans static, dynamic, and fatigue assessment of engineering materials and structures, with a focus on notched, welded, and 3D-printed components. He has authored over 350 publications, including 165+ peer-reviewed articles and a seminal book on multiaxial fatigue. His research has earned a high h-index and top 2% global scientist recognition. He serves as Editor-in-Chief of Theoretical and Applied Fracture Mechanics and has developed multiaxial fatigue-assessment software. Education and Career: Susmel has held academic roles at institutions including the University of Padova, Trinity College Dublin, and the University of Sheffield. His work bridges theoretical and experimental investigations, validated through systematic experiments. Notable projects include fatigue assessment of cast iron water pipes and hydrogen effects on metallic materials. Research Interests : Multiaxial fatigue, additive manufacturing materials, fracture mechanics, welded joints, notch fatigue, and fatigue life prediction. His methodologies include critical distance theory and advanced stress analysis approaches. Grants and Projects : Led numerous projects funded by EC, trusts, and private companies. Key areas include HyDeploy (hydrogen pipeline safety) and FRAMED (fatigue assessment of welded joints). Awards : Top 2% global scientist (Clarivate Analytics), Transforming Lives Fellow, high h-index recognition.

• Structural Integrity
• Multiaxial Fatigue
• Additive Manufacturing
• +7 more

Sir Harshad Bhadeshia is a renowned Indian-British metallurgist and Professor of Metallurgy at Queen Mary University of London since 2022. Previously, he held the Emeritus Tata Steel Professorship at the University of Cambridge, where he worked from 1980 until his move to Queen Mary. His research focuses on the theory of solid-state transformations in multicomponent steels , aiming to create novel alloys and processes with minimal resource use. Education: BSc from City of London Polytechnic, PhD from University of Cambridge (1980) under David V. Edmonds Research Areas: Phase transformations in steel, computational modeling, neural networks, Bainite, welding technology, hydrogen embrittlement resistance, nanostructured materials Scientific Awards: Bessemer Gold Medal (2006), Hume Rothery Prize (1992), Rosenhain Medal (1994), Knight Bachelor (2015), Adolf Martens Medal (2017), William Menelaus Medal (2025) Editorial Roles: Editor for Materials Science and Engineering: A , Materials Science and Technology , and Science and Technology of Welding and Joining Students: Roger Reed, Rachel Thomson His Google Scholar publications (over 650) cover topics in metallurgy, phase transformations, computational modeling, hydrogen resistance, and AI in materials science, with a significant emphasis on Bainite, welds, and nanostructured steels. The SKF University Technology Centre (2009-2019) and Computational Metallurgy Laboratory (2005-18) highlight his leadership in industrial collaborations and international research. His scientific awards and fellowships (Royal Society, Royal Academy of Engineering, Institute of Materials, Minerals and Mining) underscore his global recognition.

• Metallurgy
• Phase transformations in steel
• Computational modeling
• +12 more

Farooq Azam is a Research Fellow at the Department of Mechanical Engineering , University College London , focusing on Modelling and Optimisation of Sustainable and Smart Technical Textiles . He works in the Roberts Engineering Building, London, United Kingdom (WC1E 7JE). Research Interests: Architected materials, Metamaterials, Additive manufacturing, Structural Imaging, Structural optimisation, AI/Machine Learning, Applied Mechanics, Mechanics of Materials Email: farooq.azam.20@ucl.ac.uk Recent Research Trends : His work spans additive manufacturing applications in biomedical components, structural optimization of architected materials, turbulence modeling in engines, and machine learning-driven metamaterial design. Key areas include Ti6Al4V scaffolds, hexagonal honeycomb configurations, and carbon microlattices. Scientific Awards : FHEA (Fellowship of the Higher Education Academy), 2024 Teaching : He has taught modules such as Group Manufacturing Challenges (MECH0099) , Micro/Nano Architected Composite Materials (MECH0096) , and Elasticity and Plasticity (MECH0026) at UCL.

• Architected materials
• Metamaterials
• Additive manufacturing
• +5 more

Dr Eral Bele serves as Associate Professor (Teaching) in the Department of Mechanical Engineering at University College London, with adjunct appointments at Vellore Institute of Technology (India) and external examiner duties at Coventry University. His research and teaching focus on mechanics of lightweight materials—composites, natural fibers, and cellular structures—aiming to develop lighter, stronger, energy-efficient solutions through experimental mechanics and finite element analysis. His research spans four core projects: (1) manufacturing mechanics of natural fiber composites and technical foams; (2) fracture toughness of metamaterials; (3) additive manufacturing of hierarchical microlattices; and (4) fatigue mechanics in natural structural materials. This work leverages UCL's Materials, Structures and Manufacturing Research group facilities, including mechanical testing labs, full-field strain mapping, and additive manufacturing equipment for metallic and fiber-reinforced components. Recent publications (2022–2025) reveal concentrated expertise in additive manufacturing applications, fracture behavior of novel materials, and sustainable material development—particularly in nacre-like composites, lunar regolith processing, and natural fiber foams. His work bridges experimental validation with computational modeling to advance sustainable materials engineering. Dr Bele holds the following recognition: Senior Fellow Advance HE (York, United Kingdom) His educational leadership includes serving as UCL's Departmental Tutor and Head of Undergraduate Education, designing the MSc in Future Manufacturing and Nanoscale Engineering (2023), and supervising MEng Capstone Design Projects. Internationally, he co-leads PhD training at CICY (Yucatan) on micro-CT characterization of composites and established VIT's Sustainable Manufacturing undergraduate program. His research group operates within UCL's Materials, Structures and Manufacturing Research ecosystem and maintains active collaborations with University of Toronto, CICY, VIT, and EU industrial partners—focusing on natural fiber composites, metamaterials, and sustainable manufacturing processes.

• Composite Materials
• Natural Fiber Composites
• Additive Manufacturing
• +6 more

Dr. Evangelos Kordatos serves as the Associate Head of the School of Engineering and Built Environment at Sheffield Hallam University, where he has held roles including Lecturer, Senior Lecturer, and Principal Lecturer since 2013. He leads the Mechanical Engineering area and oversees course accreditation with Professional, Statutory and Regulatory Bodies such as IMEchE and IET. His research focuses on Non-Destructive Evaluation (NDE) and Structural Health Monitoring (SHM) methodologies for advanced materials, particularly composites and additive-manufactured materials. Education: MEng in Materials Science and Engineering, University of Ioannina, Greece (2008) MSc in Chemistry and Materials Technology, University of Ioannina (2013) PhD in Materials Engineering, University of Ioannina (2013) Postdoctoral Research Associate at Texas A&M University (USA), specializing in aerospace materials and shape memory alloys. Research Interests: Non-Destructive Evaluation (NDE) via ultrasonics, acoustic emission, and IR thermography Structural Health Monitoring (SHM) for early damage detection Mechanical and fracture behavior of advanced materials Additive Manufacturing of composite materials He leads projects such as the EU-funded IAPETUS initiative and collaborates with institutions like Texas A&M University and the Norwegian University of Science and Technology. His work includes over 60 peer-reviewed publications and editorial roles in Applied Sciences and other journals. Teaching includes modules on Materials Science, Fracture Mechanics, and Non-Destructive Evaluation across Materials Engineering, Mechanical Engineering, and Packaging Professional programs. He has advised numerous MSc/MEng projects and supervises PhD students in SHM, NDE, and sustainable composites.

• Non-Destructive Evaluation (NDE)
• Structural Health Monitoring (SHM)
• Advanced Materials Engineering
• +3 more

Hassan Shirvani is a Professor of Engineering Design and Simulation at the School of Engineering and the Built Environment, Anglia Ruskin University. He serves as Director of the Engineering Analysis Simulation and Tribology (EAST) Research Group, focusing on industry collaborations to solve engineering challenges. PhD in Mechanical Engineering, University of Bath MSc in Mechanical Engineering, University of Birmingham Member, Institute of Mechanical Engineers (IMechE) His research spans mechanical engineering, artificial intelligence, and biomedical applications, including: Thermal system optimization Machine learning in clinical decision-making Composite metal foil manufacturing Virtual reality medical training systems Flow dynamics in heat exchangers and nozzles AI-assisted diagnostics Hybrid manufacturing processes Hassan's publications reflect expertise in computational modeling, multi-physics simulations, and industrial applications. Notable areas include deep learning for suicide prediction, thermodynamic analysis of sustainable energy systems, and tribology in mechanical components.

• Mechanical Engineering
• Artificial Intelligence
• Tribology
• +3 more

Dr. Stellios Arseniyadis is a Professor of Organic Chemistry at Queen Mary University of London (QMUL), affiliated with the School of Physical and Chemical Sciences and the Centre for Chemical Research. He holds a PhD and is a Fellow of the Royal Society of Chemistry (FRSC). His research focuses on developing novel synthetic methodologies, including asymmetric catalysis, photoredox catalysis, and biohybrid systems, with applications in natural product synthesis and sustainability. Education: PhD in Chemistry, trained at leading institutions (specific details not explicitly stated in provided texts). Research interests span asymmetric catalysis (e.g., palladium-catalyzed allylic alkylation, copper catalysis with nitro compounds), biohybrid systems (DNA/RNA hybrid catalysis), and sustainable synthesis. His lab has pioneered methods for functionalized allyl boranes, difluoromethylated heterocycles, and scalable photochemical processes. Key collaborations include industry partnerships with AstraZeneca, ORIL Industrie, and Sanofi Chimie. Grants include funding for projects like radiopaque polymer development (£75k) and ADC linker design (£60k). Notable awards include the FRSC distinction. Supervised PhD students focus on topics like chiral heterocycles and sustainable chemistry. The Arseniyadis Lab hosts a dynamic team with active engagement in cutting-edge organic synthesis and catalytic innovation. Lab facilities include advanced flow chemistry setups and 3D-printed reactors. Ongoing work emphasizes green methodologies and biomedical applications, such as targeted drug delivery via ultrasound-triggered composite droplets.

• Methodology Development
• Asymmetric Catalysis
• Biohybrid Catalysis
• +3 more

Sadik Omairey is a Senior Research Fellow at Brunel Composites Centre (BCC), a joint venture between Brunel University London and The Welding Institution (TWI) since June 2019. He serves as technical lead for collaborative projects involving automotive crash structures, all-composites aircraft fuselage assembly, and thermoplastic additive manufacturing. Affiliated with Brunel University London's College of Engineering, Design and Physical Sciences, he represents BCC at academic conferences and contributes to postgraduate student training. His research spans composite materials reliability, metamaterials, biomechanics, and sustainable manufacturing. Key interests include computational homogenization (notably through his EasyPBC tool), crashworthiness optimization, adhesive bonding, and additive manufacturing. His work integrates experimental testing with advanced finite element modeling, focusing on applications in aerospace, automotive, and biomedical engineering. Recent publications (2021-2025) reveal strong trends in multiscale modeling of composites, life cycle analysis for sustainable design, and bio-inspired metamaterials. His collaborative work frequently addresses industrial challenges in automotive crash structures and aircraft fuselage assembly, with growing emphasis on recyclability and environmental impact assessment in materials engineering. Awarded significant professional recognitions: PRINCE2® Foundation Project Management certification (2023) Chartered Engineer and Fellow of IMechE (CEng FIMechE, 2018) Fellow of the Higher Education Academy (FHEA, 2018) Omairey actively supervises postgraduate students and leads multiple funded research projects including HyPStore (hydrogen storage), modular crash boxes, and PADICTON (distortion compensation in additive manufacturing). His work bridges academic research with industrial applications through partnerships with automotive and aerospace sectors. He contributes to BCC and IMM research groups, focusing on experimental validation and computational modeling of advanced composite systems.

• Composite Materials
• Structural Engineering
• Additive Manufacturing
• +4 more

Dr Samuel Tammas-Williams is a Lecturer in Digital Manufacture at The University of Edinburgh's School of Engineering, with expertise in additive manufacturing and materials science. His academic credentials include an MEng and PhD in Aerospace Engineering and Advanced Metallic Systems from The University of Manchester (2010-2015), and a PGCert in Academic Practice from LJMU (2021). Mechanical Engineering Materials Science 3D Printing Titanium Alloys X-ray Computed Tomography Electron Beam Melting His research focuses on optimizing additive manufacturing processes for aerospace and space applications through advanced characterization techniques like X-ray tomography. Recent work explores lunar manufacturing, hot isostatic pressing, and defect analysis in metallic components. He supervises BEng, MEng, and MSc projects while teaching courses in digital design, additive manufacturing, and computer-aided manufacturing. Scientific contributions include 24 research outputs across metallurgy, process optimization, and novel manufacturing applications. Current projects target titanium structure damping and material performance correlations in additive manufacturing. Fellow of Advance HE (FHEA) Member of The Institute of Materials, Minerals & Mining (MIMMM)

• Additive Manufacturing
• Materials Science
• Mechanical Engineering
• +3 more

Dr. Kostas Grigoriadis is an Associate Professor in Architecture at The Bartlett School of Architecture, University College London, where he serves as Co-Director of the Architecture MArch (ARB/RIBA Part 2) programme. An ARB-registered architect, he leads Research Cluster 8 focusing on multi-material design and its implications for architectural practice and construction. His work bridges academic research with professional practice through his firm, Continuum Design & Architecture. His educational background includes: Master of Arts in Philosophy, Open University (2023) PhD in Architecture by Project, Royal College of Art (2018) Master of Architecture and Urbanism, Architectural Association (2009) Diploma in Architecture (ARB/RIBA Part 2), University College London (2005) BA (Hons) in Architecture (ARB/RIBA Part 1), London Metropolitan University (2002) AA Professional Practice Examination (ARB/RIBA Part 3) (2024) Grigoriadis's research centers on multi-material design methodologies and the implications of functionally graded material use in architecture. His work explores advanced computational design, multi-material 3D printing, topology optimization, and the embodied energy implications of novel material applications. Drawing from Material Engagement Theory and Conceptual Blending Theory, he investigates the cognitive processes involved in designing with graded materials and challenges traditional anthropocentric notions of form imposition on materials. His publication record demonstrates consistent focus on material innovation in architecture, with recent work examining topological optimization of structural elements, multi-material facade systems, and embodied carbon analysis of building components. The trajectory shows increasing attention to sustainability considerations alongside technical innovation in architectural material applications. His notable achievements include: RIBA President's Award for Design and Technical Research (2018) Google R+D in the Built Environment Fellowship (2019) Frontiers of Architectural Research Best Paper Award (2023) Arup Prize for Emerging Talent in Architecture—Special Mention (2016) Ivan Petrovic Prize at eCAADe (2014) Grigoriadis has supervised numerous Master's students through Research Cluster 8, which explores multi-material design using both novel and recycled materials. His research has been supported by prestigious fellowships including the Google R+D Fellowship, which enabled investigation into environmental benefits of multi-material approaches. He has secured funding for collaborative projects examining topology optimization and 3D metal printing in architecture. Through his Continuum Design & Architecture practice, Grigoriadis has completed significant projects including a tourist center in Anhui, China, and won the Spiretec competition for the World Trade Centre Noida in Delhi, India. His work consistently bridges theoretical research with practical application, demonstrating real-world implications of his academic investigations into material innovation.

• Multi-Materials in Architecture
• Functionally graded material design
• Advanced computational design
• +8 more