Professor Adrian Rennie is affiliated with Uppsala University , where he works in the Department of Chemistry . His research spans soft matter physics, colloidal systems, and interfacial phenomena, with particular emphasis on protein-based materials and environmental chemistry. He also holds a Visiting researcher position at the Department of Medicinal Chemistry (Pharmaceutical Physical Chemistry), demonstrating interdisciplinary engagement. Department of Chemistry, Uppsala University Visiting researcher, Medicinal Chemistry, Uppsala University His research explores Soft Condensed Matter through neutron and X-ray scattering techniques, focusing on: Colloidal particle interactions in biological and synthetic systems Self-assembly processes at interfaces Rheological behavior of complex fluids Adsorption mechanisms from solution Surface modification with natural proteins Environmental impacts of atmospheric pollutants Recent publications highlight trends in food colloids (pea protein emulsions), environmental applications (Moringa seed proteins for water purification), and advanced characterization methods (operando scattering, neutron reflectometry). He has secured funding from VR (Swedish Research Council) and SSF (Swedish Foundation for Strategic Research) . Professor Rennie contributes to instrumentation development (sample cells for interface studies) and scientific collaboration , with extensive publications in journals like Langmuir , Soft Matter , and Advances in Colloid and Interface Science .
Dr. Ed Johnson is a Lecturer at the University of Newcastle within the College of Engineering, Science and Environment . With a 0.5FTE teaching and 0.5FTE research position , he bridges fundamental chemistry with biological applications through his work on interfacial polymer systems. PhD in Chemistry (2021, University of Newcastle) BSc and BSc (Honours) in Chemistry Research Interests focus on: Synthesis of functional interfacial materials for controlled lubrication, anti-fouling, biosensing, and optical applications Soft matter behavior in complex media under cosolutes (salts, surfactants, osmolytes) Electronic distribution mechanisms in ions and molecules affecting solvation forces Publication Trends show a concentration in polymer chemistry , interfacial dynamics , and material characterization using neutron reflectometry, XPS, and QCM. Key themes include dynamic covalent chemistry , nanoparticle interactions , and thermoresponsive systems . Scientific Awards : 2024 Leadership in Research Faculty of Science Award (University of Sheffield) 2021 Australasian Colloid and Interface Society Best PhD Thesis Award As a lecturer , he teaches Advanced Analytical Chemistry , Physical Chemistry , and Materials Chemistry , emphasizing applications in environmental science, pharmaceuticals, and energy technologies. Current supervision includes one PhD student in polymer brush synthesis.
Mariana Coutinho Sardo is an Assistant Researcher at the University of Aveiro, affiliated with the Chemistry Department and CICECO - Aveiro Institute of Materials. Her research focuses on combining solid-state NMR spectroscopy, X-ray diffraction, and computational methods to study molecular interactions in materials, particularly in pharmaceuticals, catalytic systems, and gas capture applications. She holds a PhD in Physical Chemistry from the University of Aveiro (2009) and has conducted postdoctoral research at ETH Zurich and CICECO. Education: 2009: PhD in Physical Chemistry, University of Aveiro 2005: Degree in Physics and Chemistry (teaching), University of Aveiro Research Interests: She specializes in NMR crystallography, drug-delivery systems, and the characterization of nanoporous materials for CO₂ capture and catalysis. Her work bridges experimental and computational approaches to understand molecular packing, drug-host interactions, and material functionality. Scientific Collaborations: Key collaborators include Prof. Beat H. Meier (ETH Zurich), Prof. João Rocha, and Prof. Luis Mafra (University of Aveiro). Co-leads the PANACEA project (EU-funded NMR infrastructure initiative) and contributes to CO₂ capture research through FCT-funded projects. Teaching & Outreach: She has delivered hands-on NMR courses (e.g., II Jornadas Nacionais de Caracterização de Materiais, IV Ibero-American NMR Meeting) and served as Co-President of the Young Chemists Group (SPQ, 2010–2012). Lab & Infrastructure: Works within CICECO’s advanced facilities, leveraging cutting-edge NMR and materials characterization tools for interdisciplinary research projects.
Patrick Alford is a Lecturer at the University of Alabama at Birmingham (UAB) in the Department of Chemistry, College of Arts and Sciences. He earned his PhD in Chemistry from UAB in 2019, focusing on biomedical applications of biocompatible polymers, including metal ion chelation (manganese, gadolinium, zirconium-89) and ultrasound effects on polymer microstructures. His research during graduate studies included collaborations at Oak Ridge National Laboratory for neutron scattering studies. His current role as Upper Division Laboratory Coordinator since 2020 involves designing innovative undergraduate chemistry lab experiences in general, organic, and polymer chemistry. He has taught courses such as Synthetic Physical Lab Methods, Quantitative Analysis, Organic Chemistry Labs, and Ethics in Chemical Research. His scholarly work spans drug delivery systems , theranostic microcapsules , and polymer synthesis , with notable publications on ultrasound-triggered DNA release, antioxidant microcapsules for T cell modulation, and temperature-responsive polymersomes. His research integrates biomedical engineering , nanotechnology , and materials science principles.
Bernhard Keimer is a distinguished physicist and Director at the Max Planck Institute for Solid State Research in Stuttgart, Germany. He holds dual academic appointments as Honorary Professor at the University of Stuttgart and Adjunct Professor at the University of British Columbia. As a leading researcher in condensed matter physics, he directs the Solid State Spectroscopy department which focuses on experimental investigations of quantum materials using advanced spectroscopic techniques. His academic journey began with a pre-diploma in Physics from the Technical University of Munich in 1985, followed by a Ph.D. in Physics from the Massachusetts Institute of Technology in 1991 under the supervision of Prof. R. J. Birgeneau. His career trajectory includes progressive faculty positions at Princeton University, where he served as Assistant Professor (1992-196), Associate Professor (1996-1997), and Full Professor (1997-1998) of Physics. Professor Keimer's research centers on strongly correlated electron systems, with particular emphasis on quantum materials exhibiting exotic electronic and magnetic phenomena. His department employs a sophisticated array of experimental techniques including neutron and X-ray diffraction and spectroscopy, optical spectroscopy, and Raman scattering to probe the structure and dynamics of these complex materials. A distinctive feature of his research program is the close collaboration between experimentalists and theorists within the department, recognizing that theoretical insights are essential for interpreting complex experimental data in this field. His work has significantly advanced our understanding of high-temperature superconductivity, quantum magnetism, and emergent phenomena in transition metal oxides. Analysis of Professor Keimer's recent publication record reveals a consistent focus on cutting-edge investigations of quantum materials, particularly transition metal oxides. His research increasingly explores the intersection of spin, orbital, and lattice degrees of freedom in correlated electron systems. Recent work has made significant contributions to understanding spin-orbit excitons, terahertz magnonics in antiferromagnetic materials, and the electronic structure of novel superconducting materials including nickelates and ruthenates. His publications span high-impact journals including Nature family journals, Physical Review Letters, and Science, demonstrating both the breadth and significance of his research contributions. Professor Keimer has received numerous prestigious awards that recognize his outstanding contributions to condensed matter physics: 2024: ERC Advanced Grant "SpecTera" for terahertz magnonics research 2022: Kamerlingh Onnes Prize for pioneering contributions to the understanding of quantum materials 2022: Mahendra Lal Sircar Lecture 2015: ERC Advanced Grant "Com4Com" 2011: Gottfried Wilhelm Leibniz Prize from the German Research Foundation 1995: David & Lucille Packard Faculty Fellowship 1996: Alfred P. Sloan Faculty Fellowship He has also been consistently recognized as a Highly Cited Researcher in Physics or Cross-field categories from 2014-2022. Professor Keimer has played a significant role in mentoring and advising the next generation of scientists. As Chair of the International Max Planck Research School on Condensed Matter Science since 2001, he has overseen the training of approximately 100 graduate students at the MPI for Solid State Research and the University of Stuttgart. He also chairs the Max Planck Graduate Center for Quantum Materials, which supports around 60 graduate students across multiple locations in Germany. His leadership extends to numerous research grants, including two ERC Advanced Grants that have enabled the development of cutting-edge experimental instrumentation for inelastic X-ray scattering and terahertz magnonics. The Solid State Spectroscopy department under Professor Keimer's leadership operates as an integrated research unit that combines experimental and theoretical approaches. The department maintains close collaborations with the Crystal Growth Scientific Facility, Quantum Materials Department, and Stuttgart Center for Electron Microscopy at the Max Planck Institute. Notably, Professor Keimer co-directs the Max Planck Society - University of British Columbia - University of Tokyo Center for Quantum Materials, establishing an international research network that facilitates collaborative studies and annual workshops at alternating locations. This global research infrastructure enables comprehensive investigations of quantum materials across multiple experimental techniques and theoretical frameworks.
Dr. David Madden is a Research Associate in the Department of Chemistry at the University of Cambridge, affiliated with the Institute for Energy and Environmental Flows. He works within the research group of Professor Stuart Clarke, focusing on surface chemistry investigations using experimental and theoretical approaches. His research spans diverse phenomena including: Chiral amino acid layers on metal single crystals under ultra-high vacuum Adsorption of inorganic ions on minerals from aqueous solution Iron surface reactivity modifications through adsorbed species Publications reveal expertise in corrosion science, environmental flows, and interfacial chemistry, with applications in CO 2 transport systems and marine environments. Research methodologies include: X-ray and neutron reflectometry Infrared spectroscopy Surface characterization techniques Adsorption process analysis
Alex Routh is Professor of Colloid Science in the Department of Chemical Engineering and Biotechnology at the University of Cambridge. He leads the Colloidal Dispersions research group, focusing on fundamental and applied aspects of colloidal systems. His work bridges theoretical understanding of particle behavior with practical applications in consumer products, coatings, and drug delivery systems. Professor Routh's research centers on four interconnected areas: film formation from colloidal dispersions, particle aggregation phenomena, microencapsulation technologies, and responsive microgel systems. His work on film formation investigates how particles pack and deform during drying to create continuous films, with applications in coatings technology. His aggregation research examines clumping mechanisms in systems ranging from engine oil additives to biological environments. In microencapsulation, he develops novel systems with responsive shells for controlled release, while his microgel work explores temperature-responsive particle behavior for drug delivery applications. Analysis of Professor Routh's recent publications reveals a strong trend toward practical applications of fundamental colloid science, particularly in fast-moving consumer goods. His work demonstrates consistent progression from theoretical investigations to engineered solutions for real-world problems, with growing emphasis on environmentally friendly materials and sustainable encapsulation technologies in his most recent research. Professor Routh actively collaborates across disciplines, notably with Dr. Bill Clegg in Materials Science on crack formation in drying films. His research group employs diverse experimental techniques including light scattering, rheology, neutron scattering, and advanced imaging methods to probe colloidal behavior at multiple scales. His laboratory maintains strong industry connections, particularly with consumer goods manufacturers seeking advanced encapsulation solutions.
Tej Lamichhane is currently an Assistant Professor at the University of Central Oklahoma in the Department of Engineering & Physics. His academic career includes postdoctoral research at MIT and Oak Ridge National Lab, as well as a Ph.D. in Condensed Matter Physics (2013–2019) and a Master’s in Physics (2010–2013), both from Iowa State University and University of Texas at Arlington respectively. Ph.D., Condensed Matter Physics, Iowa State University (2019) Master of Science, Physics, University of Texas at Arlington (2013) His research focuses on data-driven design and discovery of quantum materials , rare-earth-free permanent magnets , and magnetocaloric materials , with applications in electrical motors , hydrogen evolution , and biomedical nanomaterials . He integrates materials databases , rational design , and additive manufacturing to develop functional materials like single crystals , thin films , and nanomaterials . His recent publications highlight a strong emphasis on additive manufacturing and magnetic materials , with applications in energy systems , quantum technologies , and environmental sustainability . Collaborative works span institutions like MIT, Oak Ridge National Lab, and industry (Intel Corporation), reflecting interdisciplinary and applied research trends. He teaches Materials Science , Modern Physics , Engineering Optics , and Mathematical Physics II at the University of Central Oklahoma. His research leverages computational methods to study structural-electronic-magnetic correlations in materials like Fe-3Si , Sm-Fe-N , and CaNi2 , aiming to bridge fundamental science and prototype development.
Per Eklund is a Professor at Linköping University , affiliated with the Department of Physics, Chemistry and Biology (IFM) and leading the Thin Film Physics (TUNNF) research group. His work focuses on developing advanced materials for sustainable energy applications. Wallenberg Academy Fellow (extended 5-year funding) Member of strategic research area Advanced Functional Materials (AFM) Expertise in atomic-layer material synthesis Research Interests Specializes in thermoelectric materials that convert waste heat to electricity, neutron mirror technology for materials characterization, and thin film physics for energy applications. His group explores novel synthesis methods including helium ion implantation and chemical scissors for atomic-level material tailoring. Scientific Contributions Recent publications highlight: Innovations in molybdenum oxide thin films for electronic applications Advancements in Fe/Si multilayer neutron mirrors using B4C interlayers Development of Sc-W nitride thin films with enhanced thermoelectric properties Helium ion implantation techniques for scandium nitride thermoelectrics Structure-property relationships in transition metal nitrides Awards & Funding Recipient of extended funding from the Knut and Alice Wallenberg Foundation (SEK 8.75 million) to develop atom-by-atom material synthesis for sustainable energy solutions. His research aligns with Sweden's strategic efforts in materials science for climate goals. Affiliations Part of Linköping University's Advanced Functional Materials initiative and Thin Film Physics division . Collaborates with international institutions and industry partners on sustainable materials development.
Gunnar Karl Pálsson is an Associate Professor at the Department of Physics and Astronomy; Materials Physics , Uppsala University. His research focuses on hydrogen behavior in metallic systems, neutron and X-ray scattering techniques, and phase transitions in thin films and superlattices. His recent work explores: Hydrogen effects on electronic structure in metallic glasses Advanced X-ray methods for thin film characterization Strain engineering in epitaxial iron layers Hydrogen concentration quantification via MeV ion excitations Optical and magnetic responses in metal hydrides Publications span topics in hydrogen storage materials , thin film engineering , and neutron/X-ray scattering applications. Collaborations include studies on lipid systems and interfacial properties.
Kenneth Dahl Knudsen is an Adjunct Professor in the Department of Interdisciplinary Physics at the Norwegian University of Science and Technology (NTNU). His research focuses on soft condensed matter, polymers, biopolymers, and the application of neutron and X-ray scattering techniques for materials characterization. He received his MSc in applied physics from NTNU in 1985 and his PhD in biophysics from NTNU in 1990. Following his doctoral studies, he completed postdoctoral appointments at NTNU, the University of Murcia, and ESRF-Grenoble. Professor Knudsen's primary research interests lie in soft condensed matter physics, with particular expertise in polymers and biopolymers. He specializes in neutron and X-ray methods, particularly small-angle scattering techniques, which he applies to study complex materials systems. His work bridges fundamental physics with practical applications in materials science, energy, and environmental technologies. Analysis of his recent publications (2021-2025) reveals a strong focus on clay minerals, CO2 capture materials, thermoresponsive polymers, and advanced characterization techniques. His research spans multiple disciplines including materials science, environmental science, polymer physics, and energy storage. Key themes include nanoconfinement effects, intercalation phenomena, and the development of novel materials for sustainable technologies. Scientific Awards: CAS Fellow at the Norwegian Academy of Science and Letters (2011) Professor Knudsen has held significant leadership roles in the neutron science community, including Chairman of the Norwegian Neutron Scattering Association (2004-2015) and Member of the Science Advisory Committee for the European Spallation Source (2010-2015). He is associated with the Soft and Complex Matter Lab at NTNU, where his team conducts research on soft materials using advanced scattering techniques. His work often involves international collaborations and has practical applications in energy, environmental technologies, and biomaterials.
Dr. Ali Zarbakhsh is a Senior Lecturer in Physical Chemistry and Director of School Admissions at Queen Mary University of London's School of Physical and Chemical Sciences. He holds affiliations with the Centre for Chemical Research and the Centre for Experimental and Applied Physics. His research focuses on structure-function relationships in self-assembling surfactants and polymeric materials at interfaces. Key areas include neutron/X-ray scattering techniques, soft matter (nanogels for drug/DNA delivery), and lubrication (oil-metal interface adsorption). His work is funded by the European Commission, UKRI, and BP. Teaching expertise spans surfactants, electrochemistry, and nanomaterials. Recent grants include STFC-funded projects on polymer brush architectures (2025-2026), bioemulsion design (2024-2025), and gene delivery mechanisms (2023-2024). His lab develops bioemulsion systems and investigates nanoscale toughness of protein assemblies. Collaborations span materials science, biomedicine, and interdisciplinary physics. Notable publications (2024-2014) explore gene delivery complexes, nanogel adsorption, protein corona formation, and corrosion inhibition mechanisms using advanced scattering methods. His work bridges fundamental interface science with industrial applications in formulation chemistry and biotechnology.
Blair Jamieson is a Professor and Chair of the Department of Physics at the University of Winnipeg. He holds a Ph.D. in Experimental Particle Physics from the University of British Columbia (2006). His research focuses on experimental subatomic physics, neutrino oscillations, and precision measurements. Key projects include contributions to the T2K experiment in Japan and the upcoming Hyper-Kamiokande detector. He also investigates neutron electric dipole moments using ultra-cold neutrons and develops advanced detectors like the Water Cherenkov Text Experiment (WCTE) at CERN. Education: Ph.D. in Experimental Particle Physics, University of British Columbia (2006) Postdoctoral Fellowships: T2K Experiment (2008–2011), Sudbury Neutrino Observatory (2006–2008) Research interests span neutrino oscillation studies, fundamental symmetries, detector innovation, and particle physics experiments. He teaches courses including Electrodynamics and Mathematical Physics. Collaborations include TRIUMF, CERN, and the T2K/Hyper-Kamiokande consortia. Recent articles emphasize neutrino oscillation sensitivity with Hyper-Kamiokande, neutron tagging efficiency in Super-Kamiokande, and proton decay searches. His work bridges experimental particle physics with cutting-edge detector technologies.
Richard Campbell is a Senior Lecturer in Physical Pharmacy at the University of Manchester's Faculty of Medicine, Biology & Health. He holds an honorary professorship in Chemistry at Eötvös Loránd University (Hungary) and serves as UK Delegate for the European Neutron Scattering Association. His research focuses on interfacial phenomena using advanced techniques like neutron reflectometry, with applications in drug delivery systems and formulation science. He leads teaching initiatives in pharmacy calculations and co-directs an international BSc program with China Pharmaceutical University. Research interests include soft matter interactions at fluid interfaces, nanoparticle systems, and surfactant behavior under dynamic conditions. His work contributes to UN Sustainable Development Goals through advancements in health and environmental sciences. Campbell supervises postgraduate researchers and directs the Pharmaceutical Industry Advanced Training MSc program. He actively participates in international neutron beam time review panels and professional societies.
Professor Erica Wanless is an internationally recognized researcher in colloid and interface chemistry at the University of Newcastle's School of Environmental and Life Sciences, where she heads the Chemistry discipline. Her research focuses on fundamental and applied aspects of surface coatings, polymer films, and particle behavior at phase boundaries, with significant applications in mineral processing, industrial formulations, and environmental technologies. Research expertise spans molecular-scale characterization of solid-liquid interfaces using advanced techniques like soft-contact atomic force microscopy, neutron reflectometry, and ellipsometry. Current projects investigate: (1) Specific ion effects on stimulus-responsive polymer coatings in aqueous and non-aqueous environments, (2) Stabilization mechanisms of fluid interfaces for particle-stabilized foams/emulsions, and (3) Novel electrostatic pathways for liquid marble formation. Article analyses reveal consistent focus on interfacial phenomena across diverse systems: thermoresponsive polymer brushes, electrolyte solutions, particle-stabilized emulsions, and functional coatings. Recent work increasingly integrates neutron scattering techniques with molecular dynamics simulations to probe nanostructured interfaces. Jack Jacobs Trophy (2000) Japan Society for Promotion of Science Fellowship (2012) American Academy of Microbiology Fellow (2019) UON Inspiring Excellence Award (2021) Leads multiple Australian Research Council projects and serves as CI in the ARC Centre of Excellence for Eco-Efficient Beneficiation of Minerals. Founded HunterWiSE initiative promoting women in STEM through school outreach and professional networks. Research team specializes in atomic force microscopy, ellipsometry, quartz crystal microbalance, and microelectrophoresis techniques.
