Julie Euvrard is an Assistant Professor in the Department of Physics at Imperial College London, affiliated with the Faculty of Natural Sciences. She leads the Echoes Lab, focusing on transport and optoelectronic properties of emerging semiconductor materials for solar energy applications, including perovskites and organic semiconductors. Her research employs advanced Hall and photo-Hall techniques to study material properties. Education: PhD from CEA Grenoble and University Lille I (France), followed by postdoctoral work at Duke University (USA) and Princeton University (USA). She held a Distinguished Postdoctoral Fellowship at Princeton’s Andlinger Center for Energy and the Environment. Research interests include organic semiconductors, condensed matter characterization, photodetectors, and solar cell technologies. Recent work explores crystalline organic electronics and doping mechanisms in perovskites. Her lab’s contributions span optoelectronic material development and device optimization. Notable achievements include analyzing carrier dynamics in organic semiconductors and advancing Pb-free perovskite alternatives. Awards include recognition as a Distinguished Postdoctoral Fellow.
Guillaume Zoppi is a Professor in the Department of Mathematics, Physics and Electrical Engineering within the Faculty of Engineering & Environment at Northumbria University. His work spans both teaching and research in photovoltaics and renewable energy systems, with particular expertise in thin film solar cell technologies. His educational background includes a PhD in Physics from Durham University (2005), an MSc in Optoelectronics & Communication Systems, and a BSc (Hons) in Applied Physics completed at Northumbria University. He began his academic journey with a DUT "Mesures Physiques" from the Université de Savoie in France (1998). Dr. Zoppi's research focuses on thin film photovoltaics where micron-thick layers absorb sunlight to generate electricity. As an experimentalist, he actively engages in laboratory work fabricating and characterizing new photovoltaic materials and structures. His teaching encompasses fundamental experimental physics skills including laser diffraction, atomic spectroscopy, Hall effect, optical properties of semiconductors, and nuclear energy topics covering fission, fusion, and reactor design. He emphasizes error analysis in scientific measurements and scientific communication skills. Analysis of his recent publications reveals a strong research focus on CZTS/CZTSSe kesterite materials, Sb2Se3 solar cells, antiperovskite structures, and sustainable manufacturing approaches for photovoltaics. His work spans materials synthesis, device fabrication, characterization techniques, and efficiency optimization, with increasing attention to sustainability aspects of photovoltaic manufacturing processes. His research funding portfolio includes: EPSRC Centre for Doctoral Training in Renewable Energy Northeast Universities Plus (ReNU+) - £5.3M (Co-I) The Wolfson Foundation Materials characterisation suite - £1.0M (PI) EPSRC Advanced thin film sputtering fabrication facility (TF-FAB) - £971k (PI) EPSRC Reimagining Photovoltaics Manufacturing - £986k (Co-I) EPSRC Solution-processed inorganic thin film photovoltaics devices (SolPV) - £607k (Co-I) Dr. Zoppi has supervised numerous PhD students to completion both as principal supervisor and co-supervisor, with research topics spanning kesterite solar cells, SnS thin films, antiperovskite structures, and flexible photovoltaics. He currently supervises PGR students working on self-lubricating thin coatings for cutting tools and solar-to-liquid fuel conversion technologies. He is an active member of Northumbria's photovoltaic research group, which focuses on developing next-generation thin film solar cell technologies with emphasis on sustainable manufacturing approaches and novel materials systems for renewable energy applications.
Dr. Ievgeniia Kovalska is a Lecturer in Advanced 2D Energy Materials within the Department of Engineering at the University of Exeter, and a member of the Nano Engineering Science and Technology (NEST) Group and the UK Metamaterials Network. With over a decade of expertise in 2D and carbon materials, her work spans synthesis, characterisation, and applications in energy, (bio)sensing, (opto)electronics, wearables, and sustainable devices. Education: PhD in Chemistry, Chuiko Institute of Surface Chemistry, National Academy of Sciences of Ukraine MSc in Chemistry and Biology, National Pedagogical Dragomanov University, Kyiv BSc in Biology, National Pedagogical Dragomanov University, Kyiv Her research focuses on innovative materials for energy storage (Li-/non-Li batteries) and renewable energy (triboelectric nanogenerators), leveraging graphene, transition metal dichalcogenides, pnictogens, and tetrels. She employs interdisciplinary methods in material synthesis, device fabrication, and testing to advance sustainable technologies. Her work combines fundamental science with practical applications in sensing and energy harvesting. The 15 most recent articles reflect a strong trend in functional 2D materials, with emphasis on energy storage, optoelectronics, sensing, and sustainability. Keywords span materials science, nanotechnology, and engineering, while subfields include graphene applications, TMDCs, flexible devices, and hydrophobic coatings. Her publications demonstrate a consistent focus on scalable synthesis, device integration, and real-world impact. Scientific Awards and Recognition: Over 50 high-ranking publications with 900+ citations and an h-index of 16 Three granted patents, including a novel method for 2D material synthesis Sole inventor of a hydrophobic coating for stone-wall protection Recognition from global research community and media Dr. Kovalska is actively involved in research supervision (PhD and Masters), consultancy, peer review, and external examining. She has received funding for her postdoctoral and current research roles and is committed to advancing diversity in STEM through initiatives like 'Women in Smart Nanomaterials Technology', 'It's Her', and 'Soapbox Science Exeter'. She serves on the Wellbeing, Inclusion, and Culture Committee, promoting equity and inclusion in science. She leads projects on sustainable energy devices and participates in collaborative networks such as the UK Metamaterials Network. Her lab work involves the NEST Group, where she develops hybrid material systems for next-generation technologies. Future work aims to expand the application of 2D materials in climate-responsive and wearable systems.
Dr Mihalis Kazilas serves as Reader and Director of the Brunel Composites Centre (BCC) within Brunel University London's College of Engineering, Design and Physical Sciences. With over 20 years of industry and academic experience, he leads a major innovation center established through collaboration between Brunel University and TWI. His research focuses on polymer composites manufacturing, joining processes, and polymers characterisation. Key expertise includes thermoplastic composite processing, interfacial phenomena in composites, and rapid high-temperature manufacturing techniques. His work addresses critical challenges in thermal degradation prevention, interface optimization, and out-of-autoclave production methods for aerospace applications. Analysis of his 15 most recent publications reveals a dominant focus on thermal damage prevention in composite-metal joining, CF/PEEK interface characterization, and laser processing techniques. His research consistently targets industrial applicability with strong emphasis on numerical modeling, multi-scale degradation analysis, and sensor-integrated manufacturing solutions. Kazilas actively collaborates with industry partners through major research projects including CoPropel (marine propellers), smart wind turbine blades development, and graphene sensor implementation for defect detection. His leadership extends to the Non-Metallics Innovation Centre, a joint initiative between TWI, Saudi Aramco, and ADNOC. As Director of BCC since 2016, he oversees research groups focused on composites innovation and material mechanics. His technical management roles at TWI include Business Group Manager for Polymer and Composite Technologies since 2019, demonstrating strong industry-academia integration.
Professor Julie Cairney is a leading materials scientist at The University of Sydney , holding a professorship in the School of Aerospace, Mechanical and Mechatronic Engineering . She earned her B.Met.Eng. and PhD in Physical Metallurgy from UNSW, followed by research roles at the University of Birmingham and Max Planck Institute. Currently, she serves as Pro Vice-Chancellor (Research - Enterprise and Engagement) and CEO of Microscopy Australia , while maintaining active research in atomic-scale materials characterization. PhD in Physical Metallurgy, UNSW (2002) B.Met.Eng., UNSW (1998) Her research focuses on advanced microscopy techniques to analyze materials at atomic resolution, connecting microstructure to macroscopic properties. Key applications include superalloys , hydrogen-resistant steels , and nanomaterials for energy and biomedical sectors. Her work enables the development of lighter high-strength alloys and high-temperature materials with environmental and industrial benefits. Recent publications highlight innovations in hydrogen trapping analysis , cryo-atom probe tomography , and ferroelectric domain characterization . Collaborative projects span renewable energy materials , bioceramics , and additive manufacturing . She supervises students working on topics like hydrogen embrittlement , high-entropy alloys , and bioelectronic materials . Scientific Contributions ARC Future Fellow Co-author of Atom Probe Microscopy (Springer Series) Leadership in Microscopy Australia and Sydney Nano Institute She teaches Materials 1 (AMME2302) and Introduction to Mechanical Engineering (MECH1560) . Her lab develops correlative microscopy methods and 3D atom mapping for material optimization, with applications in aerospace , renewable energy , and biomedical systems .
Dr. Maria Crespo-Ribadeneyra is a Lecturer in Green Materials for Energy at the School of Engineering and Materials Science , Queen Mary University of London. She is also a member of the Equality, Diversity, and Inclusion (EDI) School Culture and Policy Team and serves as a Mental Health First Aider. Her research focuses on sustainable energy materials, particularly sodium-ion batteries and carbon composites. Current affiliations: Queen Mary University of London, Centre for Sustainable Engineering Research themes: Sustainable battery design, operando characterization, biomimetic materials Grants: Royal Society grant (2024-2026) for sodium-ion battery interfaces; British Council funding (2023-2024) for education partnerships Research Trends: Recent work spans sodium-ion battery anodes, sulfur-doped carbon electrodes, structural supercapacitors, and sustainable upcycling of waste materials like PET. Collaborations include institutions across Europe and the UK. Teaching & Outreach: Maintains in-person office hours (Wednesdays 10-12) and is part of the EDI/mental health support infrastructure.
Dr. Amirhossein Sadeghian is a Research Fellow at Coventry University's Centre for Manufacturing and Materials, specializing in laser-based manufacturing, metal additive manufacturing, and advanced welding techniques for electric vehicle battery components. He contributes to the Laser Processing and Joining Group and the WAVETAILOR project for sustainable laser production. His academic qualifications: PhD in Materials Engineering (Dissimilar Materials Welding for EV Battery Manufacturing), Coventry University (2020-2024, awarded 2025) MSc in Materials Engineering (Welding), Amirkabir University of Technology (2015-2018) BSc in Materials Engineering (Metallurgy), Imam Khomeini International University (2010-2015) Dr. Sadeghian's research spans Laser-based Manufacturing, Physical Metallurgy, Additive Manufacturing, and Laser Technology. He specializes in Robotic Laser Welding, Laser Cladding (L-DED), Laser Powder Bed Fusion (L-PBF), and advanced characterization techniques (OM, SEM, EDS, XRD, EBSD). His work integrates in-process monitoring with microstructural analysis to optimize parameters for zero-defect manufacturing aligned with UN Sustainable Development Goals. Analysis of his 11 publications (2019-2023) reveals dominant focus on dissimilar laser welding for EV batteries (copper-steel/aluminum joints), blue laser applications, and process parameter effects. Earlier work addresses high-temperature joining of superalloys via transient liquid phase bonding, with significant citation impact (e.g., 211 Scopus citations for 2022 review). As an active researcher in the WAVETAILOR project (2024-2027) on modular laser sources, he also serves as peer reviewer for Journal of Materials Science, Optics and Laser Technology, and Journal of Laser Applications. His external role as Early Career Group Secretary at the Association of Industrial Laser Users extends his industry engagement. Within Coventry University's Laser Processing and Joining Group, he advances sustainable manufacturing through cutting-edge research on laser-material interactions, microstructural control, and energy-efficient production systems for next-generation industrial applications.
Dr Daniel Walter is a Senior Research Fellow in the School of Engineering at the Australian National University (ANU). His research focuses on photovoltaic physics and perovskite-based photovoltaic technologies, with a particular emphasis on enhancing the efficiency and stability of solar cells through advanced materials engineering and device design. He leads and collaborates on projects exploring perovskite-silicon tandem solar cells, interfacial passivation strategies, and ion migration effects in perovskite materials. Walter’s work integrates theoretical modeling with experimental validation, including Bayesian optimization for material parameter extraction and photoluminescence imaging for spatial performance analysis. His contributions span over 58 peer-reviewed publications, with notable advancements in centimetre-scale perovskite solar cells achieving record fill factors and fluorinated polymer additives for stability improvements. He has secured funding through collaborative projects such as the Advanced Device Characterisation Cluster and the Perovskite Solar Cells initiative, emphasizing interdisciplinary research. Key Research Areas: Perovskite Solar Cells, Silicon Photovoltaics, Tandem Solar Cell Architectures Notable Achievements: Over 2600 citations, H-index of 26 Collaborations: ANU-led teams and international partners in material science and device engineering Walter’s research addresses critical challenges in renewable energy, aiming to bridge the gap between fundamental material science and scalable photovoltaic technologies. His studies on defect passivation, ion migration control, and large-area fabrication have positioned him as a leading voice in next-generation solar cell development.
Dr. Shan Lou is a Reader in Precision Metrology at the University of Huddersfield, holding positions in the Department of Engineering within the School of Computing and Engineering. He is an integral member of the Centre for Precision Technologies (CPT) and the EPSRC Future Metrology Hub, where he conducts pioneering research in precision metrology with a focus on additive manufacturing applications. Dr. Lou's research spans multiple critical areas in metrology including precision metrology for additive manufacturing (dimension, surface texture, and internal defects), X-ray computed tomography metrology, in-process metrology for advanced manufacturing, advanced surface texture measurement and characterisation, robot-assisted large-volume metrology, and applied machine learning for metrology applications. His work demonstrates strong interdisciplinary connections between engineering, computer science, and materials science. Analysis of Dr. Lou's recent publications reveals a strong trend toward integrating advanced computational methods with traditional metrology techniques. The research spans from fundamental metrology principles to practical industrial applications, with significant emphasis on solving measurement challenges specific to additive manufacturing processes. Key themes include the development of novel algorithms for surface characterization, integration of machine learning for automated metrology, and creation of reference standards for emerging manufacturing technologies. EPSRC New Investigator Grant recipient RCUK Catapult Researchers in Residence Grant recipient Chartered Engineer of the Institution of Mechanical Engineers (IMechE) Fellow of the Higher Education Academy (HEA) Editorial board member of 'Bio-design and Manufacturing' Committee Member of Dimensional X-ray Computed Tomography (DXCT) Committee Member of British Standard Institution (BSI) AMT/8 and TDW/4/4/1 Dr. Lou actively supervises numerous PhD and Master's students, with current projects focusing on robot-assisted metrology for automated inspection, XCT imaging and data processing, surface roughness impact on mechanical performance, in-situ quality control of 3D printing, and digital twin applications for additive manufacturing. His research is supported by substantial external funding from EPSRC, Royal Society, Horizon Europe, and industry partners including Digital Surf, Nikon metrology, HiETA, and Sartorius. As part of the Centre for Precision Technologies, Dr. Lou collaborates with the National Measurement Institute (NPL) and Catapult HVM centres (MTC, AMRC) to develop precision metrology technology specifically for the additive manufacturing industry, contributing significantly to the advancement of measurement science in this rapidly evolving field.
Dr Terry Ireland serves as an Honorary Researcher in the Department of Chemical Engineering within Brunel University London's College of Engineering, Design and Physical Sciences. His academic foundation includes a BSc in Chemistry from the University of Essex (1996), followed by an MSc (1999) and PhD (2008) from the University of Greenwich under Professor Jack Silver's supervision, focusing on rare earth element doped phosphor materials. BSc Chemistry, University of Essex (1996) MSc (Precipitation techniques and characterisation of rare earth element doped phosphor materials), University of Greenwich (1999) PhD (Precipitation techniques and characterisation of rare earth element doped phosphor materials), University of Greenwich (2008) His research spans luminescent materials synthesis , photonic band gap structures , and bio-replication techniques using Lepidoptera templates. Current investigations include nanofabrication of phosphor materials and dye-sensitised solar cells, with emphasis on structural colour engineering inspired by natural systems. His work bridges fundamental materials science with practical display and lighting technologies. Analysis of his 66+ publications reveals consistent focus on phosphor characterisation (particularly rare earth doped oxides), nanoparticle fabrication techniques, and bio-inspired photonic structures . Key collaborations with Silver, Withnall, and Fern demonstrate interdisciplinary approaches spanning chemical engineering, optics, and biomimetics. Recent work shows increasing emphasis on sustainable materials processing and applications in next-generation displays. Dr Ireland has contributed to numerous conference proceedings and peer-reviewed journals including Journal of Luminescence , Optics & Laser Technology , and Nanotechnology , with his 2011 paper Achieving structured colour in inorganic systems representing a significant synthesis of biomimetic principles in photonic materials design. As a Research Fellow since 2006, he has developed expertise in phosphor synthesis techniques, characterisation methodologies including Raman spectroscopy, and applications in electroluminescent displays. His work with micellar templating and sacrificial phases demonstrates innovative approaches to nanoparticle morphology control, while collaborations on bio-replicated structures highlight cross-disciplinary integration of natural design principles. His laboratory work involves advanced materials characterisation facilities and nanofabrication techniques, particularly focused on solution-based synthesis routes for phosphor materials. Current projects continue to explore the intersection of natural photonic structures and engineered luminescent systems, maintaining strong industry relevance through display technology applications.
Dr Alex Wood is a faculty member in the Department of Sociology at the University of Cambridge, situated within the School of the Humanities and Social Sciences. His current academic rank is Lecturer and he holds an active role in the department’s teaching and research community. Research interests inferred from his recent publications centre on experimental condensed-matter physics and organic electronic materials, with emphasis on charge-transport phenomena in conjugated polymers, perovskite semiconductors, carbon-nanotube networks and thermoelectric energy conversion. Methodologically, his work employs conductive atomic-force microscopy, Hall-effect measurements and electrochemical gating to unravel nanoscale transport mechanisms. Across 2020-2025 he has co-authored twelve peer-reviewed articles that collectively map the evolution of organic semiconductor doping strategies, the role of structural and dynamic disorder on carrier mobility, and design rules for enhancing thermoelectric figures of merit in polymer-based composites. These studies provide quantitative insights into how tie-chain engineering, counter-ion selection and processing conditions modulate electrical and thermal conductivity. At present no students, funded grants, scientific prizes or laboratory webpages are disclosed in the provided material, and no contact e-mail address is listed.
Diana Patalwala is a Senior Research Officer at the Centre for Microscopy, Characterisation & Analysis (CMCA), The University of Western Australia , serving as the West Australian Node for the National Imaging Facility (NIF). She oversees operation and development of preclinical and materials imaging projects, training researchers in advanced techniques like MicroCT, high-frequency ultrasound, and photoacoustic imaging. Education : Masters of Science in Medical Biotechnology , University of Technology Sydney (2012) Research Interests span multi-modal imaging applications across biomedical, geological, marine science, and engineering domains. Her expertise in invivo/exvivo imaging , data analysis, and visualization contributes to disciplines aligned with UN Sustainable Development Goals including Medical Devices and Environmental Energy . Publication Trends reveal interdisciplinary impacts: gut microbiota in neonatal development (2024), dental implant site biomechanics (2023), avian evolutionary genetics (2023), pediatric dentistry imaging (2020), and coral climate adaptation (2019). Scientific Recognition : National Imaging Facility Fellow (2013–present) Advisory Roles include technical training in imaging systems and participation as keynote speaker at the Global Bioimaging Biomedical Webinar Series (2021). She manages datasets for paleontological and coral stress studies, while media coverage highlights her work on elephant bird mysteries and pediatric heart treatments.
Professor Anthony R West is Professor of Electroceramics and Solid State Chemistry within the School of Chemical, Materials and Biological Engineering at the University of Sheffield . He also served as Head of the Department of Materials Science and Engineering from 1999 to 2007. Education & Academic Career BSc Chemistry, University College Swansea PhD (Silicate Chemistry), University of Aberdeen (1971) DSc, University of Aberdeen (1984) Lecturer in Chemistry, University of Aberdeen (1971) Professor of Chemistry, University of Aberdeen (1989) Head of Department, University of Sheffield (1999–2007) Research Interests Professor West’s research focuses on the synthesis and characterisation of novel oxide materials, their crystal structures, and their electrical properties. He employs impedance spectroscopy and phase-diagram studies to understand ionic and electronic conductivity in electroceramics, with applications in lithium-ion batteries, fuel cells, capacitors and sensors. Key themes include high-capacity battery cathodes exploiting oxygen-redox chemistry, solid electrolytes, relaxor ferroelectrics, and resistive-switching phenomena. Publications & Scholarly Output His recent work (2020–2024) highlights advances in resistive switching, redox-active oxygen in oxides, and high-permittivity dielectrics. With over 450 peer-reviewed papers and two widely-used textbooks ( Solid State Chemistry and its Applications ), his output continues to shape solid-state and materials chemistry. Awards & Recognition John B. Goodenough Award (RSC, 2013) Chemical Record Lectureship (Japan, 2009) Griffiths Medal & Prize (IOM3, 2008) Epsilon de Oro Award (Spanish Society of Glass & Ceramics, 2007) Industrial Award in Solid State Chemistry (RSC, 1996) Fellowships: FRSE, FRSC, FInstP, FIMMM Leadership & Service He founded the Journal of Materials Chemistry , established the Materials Chemistry Division of the Royal Society of Chemistry, and served as President of the Inorganic Chemistry Division of IUPAC (2004–2007). He co-organised the inaugural Materials Chemistry (MCI) and Materials Discussion (MDI) conferences.
Dr. Katie Moore is a Senior Lecturer in Materials Characterisation at the University of Manchester's Department of Materials and the Undergraduate Programme Director for Materials Science and Engineering. She specializes in NanoSIMS (Nanoscale Secondary Ion Mass Spectrometry) analysis, focusing on hydrogen detection in metals and trace element uptake in crops. Her work bridges materials science and environmental biology, addressing challenges in corrosion-resistant alloys and crop nutrition. Education: MEng in Materials Science, University of Oxford (2007) D.Phil in Materials Science, University of Oxford (2011) Fellow of the Higher Education Academy (2019) Research Interests: Katie’s research explores: Hydrogen embrittlement mechanisms in steel, nickel, and zirconium alloys Zirconium oxidation and hydrogen pickup using isotopic tracers Trace element dynamics in crops (e.g., arsenic in rice, iron in wheat) Her techniques include NanoSIMS, atom probe tomography, and correlative microscopy. Scientific Awards: 3rd place, IOM3 Young Person’s World Lecture Competition (2010) IOM3 Young Person’s Lecture Competition UK Winner (2010) Rank Prize Funds Nutrition Committee Prize for Best Contributed Paper (2016) Grants & Projects: CROPNUT : Enhancing iron and zinc in cereals (2017–2020) Hydrogen and Oxygen diffusion in nuclear zirconium alloys (2015–2019) High-resolution techniques for hydrogen uptake in corrosion-resistant alloys (2014–2021) Labs & Teams: Katie leads the NanoSIMS Group and collaborates with the Photon Science Institute. She also chairs committees for the UK Surface Analysis Forum.
Dr. Laura McCormick is a Research Fellow at the University of Southampton, specializing in inorganic and materials chemistry. Her work focuses on the synthesis, characterization, and application of coordination complexes, metal-organic frameworks (MOFs), and corrole-based materials. She holds a BSc (Hons) in Chemistry from the University of Melbourne. Her research interests include the design of functional materials for gas capture, catalysis, and optoelectronics, with a particular emphasis on structural chemistry, spectroscopic analysis, and the interplay between molecular architecture and physical properties. She contributes to interdisciplinary projects, collaborating with groups in spectroscopy, analytical chemistry, and computational modeling. Dr. McCormick’s publications reflect her expertise in advanced materials, including studies on lanthanide complexes, iron-based clusters, and fluorinated corroles. Her work has appeared in high-impact journals such as Nature Chemistry and Angewandte Chemie . Her lab affiliations include the Characterisation and Analytics research group, where she leverages cutting-edge techniques for material characterization. While no awards are explicitly listed, her prolific publication record highlights her contributions to the field.
