Find Academic Supervisors

• Heterogeneous Catalysis
• Zeolite Chemistry
• Sustainable Chemistry
• +5 more

Jerrik Mielby is an Associate Professor in the Department of Chemistry at the Technical University of Denmark (DTU). He is affiliated with the Inorganic Chemistry section within the Catalysis and Sustainable Chemistry group, working out of Building 206, Room 158 at Chemistry Square, DTU Lyngby Campus. Research Interests Mielby’s research sits at the intersection of heterogeneous catalysis and sustainable chemistry, with a strong emphasis on designing advanced zeolite- and carbon-based nanomaterials that drive energy-efficient and environmentally benign transformations. His core activities encompass: Encapsulation and stabilization of metal nanoparticles inside tailored porous supports (zeolites, ordered mesoporous carbons, MOF-derived matrices). CO₂ valorisation routes such as methanation, alcohol synthesis, and low-temperature hydrogenation enabled by Ni-, Cu-, and Pd-based catalysts. Deep methane oxidation for emission control, focusing on sulfur-tolerant Pd/zeolite systems that withstand realistic exhaust conditions. Bioethanol upgrading via dehydrogenation and aromatisation over Zn- or Cu-promoted zeolite catalysts, bridging biomass conversion and fuel chemistry. Operando spectroscopic studies (modulation-excitation DRIFTS, XAS) that unravel active-site dynamics under reaction conditions. Publication Profile Since 2010, Mielby has co-authored more than 35 peer-reviewed papers spanning high-impact journals in catalysis and materials science. The body of work exhibits a clear temporal evolution from fundamental mechanistic studies of gold-catalysed oxidative coupling reactions to the latest 2025 publication on sulfur-tolerant methane oxidation catalysts. Collectively, the literature demonstrates sustained innovation in catalyst design, advanced characterisation, and process intensification for carbon-neutral fuel and chemical production. Scientific Awards While the provided text does not list specific honours, the breadth and longevity of Mielby’s publication record and his academic rank at DTU suggest recognition within the catalysis community. Contact & Identifiers Email: jjmie@kemi.dtu.dk ORCID: 0000-0001-6588-2495 Phone: +45 4525 2363

Mark D LumsdenView profile

Researcher

• Quantum Materials
• Neutron Scattering
• Condensed Matter Physics
• +3 more

Mark D Lumsden serves as Spectroscopy Section Head within the Neutron Scattering Division of Oak Ridge National Laboratory's Neutron Sciences Directorate, overseeing operations of 10 neutron spectrometers across the High Flux Isotope Reactor (HFIR) and Spallation Neutron Source (SNS) facilities. A McMaster University PhD graduate (1999), he joined ORNL as a Eugene P. Wigner Fellow before progressing through leadership roles including Time-of-Flight Spectroscopy Group Leader (2011-2017) and Spectroscopy Group Leader (2017-2020). Ph.D. in Physics, McMaster University, Canada (1999) B.Sc. in Physics, St. Francis Xavier University, Canada (1993) His research centers on quantum materials investigation through neutron scattering techniques, specializing in quantum magnetism phenomena including spin liquids, topological magnons, and frustrated magnetic systems. Recent work examines field-induced quantum phase transitions in honeycomb lattice materials like α-RuCl3 and YbCl3, while earlier contributions established foundational understanding of iron-based superconductors. His experimental approach combines advanced spectrometer development with precision measurements of magnetic excitations across diverse quantum materials platforms. Lumsden's publication trends reveal sustained focus on quantum magnetic phenomena since 2005, with increasing emphasis on Kitaev materials and topological magnonics after 2015. His work spans condensed matter physics, materials science, and neutron instrumentation, characterized by collaborations across international facilities and frequent appearances in high-impact journals including Physical Review B, Nature Communications, and npj Quantum Materials. Fellow, American Association for the Advancement of Science (2021) Fellow, Neutron Scattering Society of America (2018) ORNL Director's Award for Research Accomplishment (2016, 2009) Fellow, American Physical Society (2015) Gordon Battelle Award for Scientific Research (2011) As Section Head, Lumsden directs a major neutron science capability while maintaining active research programs funded through DOE Office of Science grants. His leadership includes managing the SPICE data acquisition system development (recognized with 2005 ORNL Significant Event Award) and coordinating multi-institutional teams studying quantum spin liquids. Current projects investigate topological magnon gaps and quantum criticality in frustrated magnets, leveraging ORNL's world-leading neutron facilities. Lumsden's Spectroscopy Section operates integrated neutron scattering capabilities across HFIR's triple-axis spectrometers and SNS's time-of-flight instruments including CNCS, HYSPEC, SEQUOIA, and ARCS. His team develops advanced methodologies for measuring quantum magnetic excitations under extreme conditions (high magnetic fields, low temperatures), supporting both in-house research and external user programs through ORNL's user facilities.

Thierry PoinotView profile

Professor

• Continuous-time system identification
• Nonlinear system identification
• Fractional models
• +5 more

Thierry Poinot is a Full Professor in Automatic Control and Systems at École Nationale Supérieure d'Ingénieurs de Poitiers (ENSIP), University of Poitiers, where he teaches signal processing, automatic control, and system identification across multiple engineering programs. He serves as Director of the Laboratory of Automatic Control and Systems (LIAS), which maintains dual affiliations with ENSIP in Poitiers and ISAE-ENSMA in Chasseneuil-du-Poitou. Professor Poinot's research specializes in the modeling and identification of complex dynamic systems governed by ordinary and partial differential equations. His work focuses on accessing physical knowledge of systems or obtaining behavioral models through continuous-time models, linear parameter-varying (LPV) models, fractional models, and multi-dimensional models. Key research areas include continuous-time system identification, nonlinear system identification, output-error algorithms, uncertainty characterization, physical parameter estimation, and fractional-order modeling. His publications reveal a strong focus on practical applications across multiple domains: battery electrochemical systems (particularly lithium-ion batteries), thermal systems (including diffusion phenomena and heat exchangers), water treatment processes, bird population dynamics modeling, and electrical engineering systems. Recent work demonstrates increasing emphasis on environmental applications and fractional-order modeling techniques applied to electrochemical impedance spectroscopy. As Director of LIAS laboratory, Professor Poinot leads research in automatic control and systems identification, with particular strength in bridging theoretical system identification methods with practical applications in energy systems, environmental engineering, and electrochemical processes. The laboratory maintains strong international collaborations, particularly evident in his extensive publication record in top control engineering and electrochemical journals.

• Electrochemistry
• Materials Science
• Solid Oxide Fuel Cells
• +3 more

Bernard Boukamp is a Researcher in Inorganic Materials Science, specializing in electrochemical systems, cathode materials, and energy storage technologies. His work focuses on advancing materials for solid oxide fuel cells (SOFCs), catalytic activity analysis, and electrochemical impedance spectroscopy. He actively contributes to the development of high-efficiency energy conversion systems through innovative materials research. Research Interests: Oxygen Evolution Reaction mechanisms in advanced perovskite oxides Electrochemical impedance analysis methodologies Design of porous cathode structures for intermediate-temperature SOFCs Magnetic ordering effects in electrochemical water splitting systems Recent Work Trends: His publications emphasize novel approaches to material characterization, particularly leveraging thin-film models and impedance spectroscopy innovations. Key themes include catalyst efficiency optimization and material conductivity across varying operational conditions. Professional Engagement: Boukamp frequently presents at international conferences, delivering invited talks on topics like electrochemical impedance analysis and distribution of relaxation times methods. His work bridges fundamental materials science with applied energy technology solutions.

• Quantum Chromodynamics (QCD)
• Theoretical Physics
• Quantum Field Theory
• +5 more

Prof Gert Aarts is a Theoretical Physics Professor at Swansea University's School of Biosciences, Geography and Physics. He holds a Personal Chair and serves as Director of the UKRI Centre for Doctoral Training in Artificial Intelligence, Machine Learning and Advanced Computing (AIMLAC) and Head of the Particle Physics and Cosmology Theory group. His research focuses on QCD under extreme conditions, the sign problem in strongly interacting matter, quantum field theory, and advanced computational methods. Research Interests: His work bridges quantum chromodynamics (QCD) and computational physics, with a focus on lattice field theory, stochastic quantization, and machine learning applications. He explores thermal QCD phenomena, baryon spectroscopy, and phase transitions using advanced numerical techniques. Key projects include studies on charm baryons, diffusion models, and the FASTSUM collaboration's thermal lattice QCD analyses. Recognition: A Fellow of the Learned Society of Wales (2019), recipient of the Royal Society Wolfson Merit Award (2013–2018), and Leverhulme Research Fellowship (2013–2015). His research has been supported by STFC and other grants. Supervision & Collaboration: Advises PhD students on lattice configurations, stochastic quantization, and diffusion models. Collaborates with the FASTSUM team and leads the AIMLAC CDT, fostering interdisciplinary research in AI and high-performance computing. Active in international conferences and publishes extensively in journals like Physical Review D and Nuclear Physics A .

Yair LitmanView profile

Research Fellow

• Theoretical Chemistry
• Quantum Dynamics
• Non-adiabatic Rate Theory
• +6 more

Yair Litman is a DFG-supported Junior Research Fellow at Wolfson College and a theoretical chemist in the Yusuf Hamied Department of Chemistry , University of Cambridge. His work bridges quantum dynamics, advanced spectroscopy and machine learning to unravel how nuclei move at the atomic scale in aqueous, metallic and hybrid organic/inorganic systems. Education Diploma, University of Buenos Aires (2014) PhD, Fritz Haber Institute of the Max Planck Society, Berlin (2016–2020) Research Interests Litman’s research orbits around quantum mechanical descriptions of molecular motion . He develops adiabatic and non-adiabatic rate theories to treat hydrogen transfer and other light-atom reactions, where tunneling and zero-point energy dominate. He couples these theories with non-linear optical spectroscopies —sum-frequency generation, tip-enhanced Raman, 2D-IR—to obtain direct experimental fingerprints of elusive quantum effects at aqueous interfaces and on catalytic surfaces. Machine-learning-accelerated electronic-structure calculations provide the speed and accuracy required to simulate these complex many-body systems. Publications Trend Across 2022-2025, his publications reveal a concerted push toward first-principles spectroscopy : combining rigorous quantum-rate formulations with machine-learned potentials to predict and interpret spectra of interfacial water, defects in 2D materials and charge-transfer systems. The work is equally split between methodological advances (instanton theory, i-PI extensions, friction tensors) and high-impact applications (air-water interface fields, MX2 monolayers, dye-sensitized interfaces). Honours & Funding Deutsche Forschungsgemeinschaft (DFG) Fellowship Wolfson College Junior Research Fellowship Research Groups & Collaborations Litman is embedded in the Althorpe Group at Cambridge, continues collaborations with the Rossi Group at Max Planck Institute for Structure and Dynamics of Matter (Hamburg), and the Bonn Group at Max Planck Institute for Polymer Research (Mainz). He also contributes to the open-source i-PI and FHI-aims software ecosystems, fostering worldwide community development.

Barbara LechnerView profile

Professor

• Functional Nanomaterials
• Catalysis
• Surface Science
• +3 more

Prof. Barbara Lechner is a Rudolf Mössbauer Professor at the Technical University of Munich (TUM), leading the research group on Functional Nanomaterials within the TUM School of Natural Sciences . She holds a dual background in chemistry (Mag. rer. nat., University of Innsbruck) and physics (PhD, University of Cambridge). Her career includes postdoctoral work at Lawrence Berkeley National Laboratory and a group leader role at TUM's Chair of Physical Chemistry since 2016. Her research focuses on dynamic restructuring of functional nanomaterials under realistic conditions , employing advanced techniques like gas-phase scanning tunneling microscopy ( FastSTM ). Key areas include catalyst stability, metal-oxide interactions, and surface dynamics under reactive environments. Recent work explores cluster encapsulation effects, 2D material stability, and oxygen transport in catalytic systems. ERC Starting Grant (2019) Bavarian Academy of Sciences Young Fellowship (2018) Lecturer Award from the Chemical Industry Fund (2023) Grants and awards highlight her contributions to surface science and catalysis. Her lab develops tools like the PyfastSPM software for microscopy data analysis. Current projects investigate pressure-dependent surface reactions and atomic-scale mechanisms in energy-related materials.

Richard Mark StrattView profile

Professor

• Molecular Dynamics
• Solvation
• Spectroscopy
• +4 more

Richard Mark Stratt is the Newport Rogers Professor of Chemistry and Professor of Physics at Brown University, holding a joint appointment in the departments of Chemistry and Physics. He received his S.B. in Chemistry from MIT in 1975 and his Ph.D. in Chemistry from UC Berkeley in 1979. His research focuses on the theoretical understanding of ultrafast molecular dynamics in liquids, emphasizing solvation, vibrational relaxation, and the role of potential energy landscapes. Key achievements include the development of instantaneous-normal-mode analysis to study elementary liquid dynamics and the exploration of nonlinear spectroscopies such as optical Kerr effect and two-dimensional Raman spectroscopy. The 15 most recent publications reflect his work on disordered systems, solvation mechanisms, and ultrafast spectroscopic techniques. His research employs geodesic pathways and random matrix theory to analyze liquid dynamics, with implications for nonlinear response in polar and nonpolar solvents. Scientific Awards: National Science Foundation Postdoctoral Fellowship (1980) Alfred P. Sloan Foundation Fellow (1985-1989) Fulbright Scholar (1991-1992) Elected Fellow of the American Physical Society (1997) Harrison S. Kravis University Professor (1999-2000) Newport Rogers Professor in Chemistry (2004-present) Philip J. Bray Award for Excellence in Teaching (2010) Elected Fellow of the American Chemical Society (2013) American Chemical Society Joel Henry Hildebrand Award (2022) He has served as Chair of the Brown chemistry department (1996-1999), the American Chemical Society Theoretical Subdivision (1998-1999), and the Physical Chemistry Division (2001-2002). He teaches courses ranging from introductory chemistry to advanced physical chemistry and statistical mechanics.

Joe PaddisonView profile

Researcher

• Quantum Materials
• Neutron Scattering
• Magnetism
• +5 more

Joe Paddison is a Neutron Scattering Scientist and Computational Instrument Scientist at Oak Ridge National Laboratory, where he has been working since 2024. Previously, he served as a Distinguished Staff Fellow & R&D Associate at Oak Ridge National Laboratory (2019-2024), Junior Research Fellow at Churchill College, University of Cambridge, UK (2016-2019), and Postdoctoral Fellow at Georgia Institute of Technology, USA (2015-2016) under Prof. Martin Mourigal. His educational background includes a DPhil (PhD) in Inorganic Chemistry from the University of Oxford, UK (2011-2015), advised by Prof. Andrew Goodwin and Dr. Ross Stewart, and an MChem in Chemistry from the University of Oxford, UK (2007-2011). Dr. Paddison's research focuses on understanding quantum materials where disorder of atoms and magnetic moments generates unconventional states of matter. He employs scattering experiments and atomistic modeling techniques to study material structures at the nanoscale. His work centers in the Neutron Diffraction section as part of the Basic Energy Sciences project 'Understanding Quantum Matter Beyond the Unit Cell.' He is the author of software packages Spinteract, Spinvert, and Scatty for modeling scattering data from spin liquids and disordered materials. His publication record shows a consistent trajectory in quantum magnetism, with recent work focusing on spin liquids, skyrmion materials, and Kagome metals appearing in high-impact journals including Nature, Science, Physical Review Letters, and npj Quantum Materials. His research demonstrates increasing sophistication in both experimental techniques and computational modeling approaches. BTM Willis Prize (2021) European Physical Society Early Career Prize (2017) Dr. Paddison actively mentors early-career researchers at Oak Ridge National Laboratory and collaborates extensively with academic institutions worldwide. His current work leverages major user facilities including the High Flux Isotope Reactor and the Spallation Neutron Source, positioning him at the forefront of neutron scattering research for quantum materials. He leads the development of computational approaches to analyze complex magnetic structures, with his software tools becoming increasingly adopted by the neutron scattering community. His current research directions include advancing methods for studying topological spin textures and developing new approaches for analyzing disordered quantum materials.

• Fluid Dynamics
• Multiphase Flows
• Non-Newtonian Fluid Dynamics
• +5 more

Dr. Arezoo Ardekani is a Professor of Mechanical Engineering and Associate Head for Faculty Affairs at Purdue University's School of Mechanical Engineering in West Lafayette, Indiana. She holds a Shapiro Postdoctoral Fellowship from MIT and earned her Ph.D. and M.S. from the University of California, Irvine, as well as a B.S. from Sharif University of Technology. Her research focuses on fluid dynamics, multiphase flows, non-Newtonian fluids, and microfluidics, with applications in biomedical engineering and sustainable energy. Dr. Ardekani has received numerous awards, including the Presidential Early Career Award (PECASE), NSF CAREER Award, and election as an ASME Fellow. Her work spans fundamental studies in rheology and viscoelastic flows to applied research in biofluid dynamics and nanotechnology. Education: Ph.D., University of California Irvine, 2009 M.S., University of California Irvine, 2005 B.S., Sharif University of Technology, 2003 Shapiro Postdoctoral Fellow, MIT, 2010 Research Interests: Fluid dynamics, biomaterials, multiphase flows, microfluidics, and soft matter. Labs: Complex Flow Lab Her recent publications (2023–2025) explore topics like glymphatic transport in the brain, machine learning for microbiota analysis, and monoclonal antibody absorption mechanisms. She has pioneered methods for acoustofluidic nanoparticle characterization and acoustically enhanced filtration systems.

Neil SullivanView profile

Professor

• Quantum Solids
• NMR Spectroscopy
• Low-Temperature Physics
• +1 more

Neil Sullivan is Distinguished Professor of Physics at the University of Florida, specializing in condensed matter sciences. With a PhD from Harvard University (1972), his research investigates collective quantum phenomena at ultralow temperatures using facilities at the National High Magnetic Field Laboratory and UF Microkelvin Laboratory. Current research includes: Order/disorder processes and quantum diffusion in solid hydrogen and helium NMR studies of quantum solids under extreme magnetic fields Collaborative axion dark matter detection with the ADMX experiment Development of novel measurement techniques for sub-kelvin temperatures

Parisa AndalibView profile

Academic

• Magnetic Materials
• Electronics Engineering
• 5G Technology
• +3 more

Parisa Andalib is a Research Assistant Professor in the Department of Electrical and Computer Engineering at Northeastern University, College of Engineering. Her research focuses on advanced magnetic materials, nanotechnology, and their applications in 5G systems, high-frequency electronics, and biomedical engineering. She is recognized for her work in optimizing ferrite-based components for MHz-frequency inductors and developing magnetoceramics for telecommunications. Key research interests include grain boundary engineering in magnetic materials, interface design for semiconductor integration, and biomedical applications of magnetic nanoparticles. Her 2023 Faculty Research Team Award highlights contributions to system-on-wafer solutions for 5G phased arrays and full-duplexing technologies. Her publications span topics like superexchange mechanisms in ferrite systems, thermal management strategies, and all-optical photonic logic gates. Her work bridges material science with applied engineering, addressing challenges in power electronics, wireless communication, and medical devices. Awards: 2023 Faculty Research Team Award (Northeastern University College of Engineering) Advising and grants details are not explicitly listed in available text, though her research activities suggest involvement in collaborative projects with industry and academic partners.

Junji IwaharaView profile

Professor

• Biophysical Chemistry
• Protein-DNA Interactions
• Ion-Pair Dynamics
• +3 more

Junji Iwahara is a Professor in the Department of Biochemistry & Molecular Biology at the University of Texas Medical Branch (UTMB). His research focuses on the biophysical chemistry of protein-DNA interactions, particularly ion-pair dynamics and mechanisms of DNA scanning by proteins. He holds a BSc and PhD in Biophysics and Biochemistry from the University of Tokyo, followed by postdoctoral training at UCLA and NIH. Key research areas include: Role of ion-pair dynamics in molecular recognition and enzymatic catalysis Mechanisms of DNA target search by transcription factors and repair enzymes Development of NMR-based methods to study biomolecular electrostatics and dynamics His lab employs advanced techniques such as paramagnetic NMR, stopped-flow fluorescence, and computational modeling to investigate protein-DNA interactions. Notable projects include studies on ion-pair formation, DNA scanning efficiency, and the impact of intrinsically disordered regions on molecular recognition. Dr. Iwahara has received funding from the NSF and maintains an active lab group. His work bridges biophysics, biochemistry, and structural biology, with applications in understanding fundamental biological processes.

• Cell Biology
• Biophysics
• Membrane Dynamics
• +3 more

Dr. Dilip Shrestha is a Senior Microscopist and Researcher at the National Heart & Lung Institute and the Department of Life Sciences, Imperial College London. His work focuses on decoding molecular interactions within plasma membranes using advanced microscopy techniques like fluorescence correlation spectroscopy (FCS) and super-resolution microscopy (e.g., STED, STORM). He investigates how membrane composition, lipid dynamics, and receptor interactions regulate cellular functions, with implications for understanding disease mechanisms. Dr. Shrestha’s research integrates biophysical methodologies to study fast temporal and spatial molecular events at the plasma membrane. His studies explore topics such as vesicle dynamics, actin-cytoskeleton regulation of receptors, and the effects of environmental stimuli on membrane properties. His technical expertise includes optimizing imaging techniques for high photon count rates and developing solvatochromic dyes for membrane ordering analysis. His publications highlight contributions to understanding lipid membrane dynamics, antigen presentation mechanisms, and the role of ER stress in immune cell activation. While no awards are explicitly listed, his work reflects significant contributions to biophysical and cellular imaging research. Dr. Shrestha’s research also involves collaborations across disciplines, applying super-resolution microscopy to study cellular mechanics and traction force microscopy for understanding cell-substrate interactions. His experimental approaches bridge fundamental biology with advanced optical technologies to address unresolved questions in membrane biology.

Ralph AdamsView profile

Research Fellow

• NMR Spectroscopy
• Analytical Chemistry
• Biochemistry
• +4 more

Dr. Ralph Adams is a Senior Research Fellow and Head of NMR Spectroscopy at the University of Manchester's Department of Chemistry, specializing in analytical, measurements and physical chemistry. He develops novel NMR techniques applied to chemistry, biochemistry, and medicine, with current projects including ultra-selective methods (GEMSTONE), diffusion-ordered spectroscopy (DOSY), and reaction monitoring methodology. His education includes an MChem from the University of York (2005) and a PhD from University of York (2009) on hyperpolarisation applications in magnetic resonance imaging. Postdoctoral work included roles at Bruker and EPSRC-funded research on matrix-assisted DOSY. Research Interests: Adams' work focuses on advancing NMR methodologies and their applications across scientific domains. His primary research areas include: Development of ultra-sensitive NMR techniques for chemical analysis Applications in biomolecular structure determination Hyperpolarization methods for medical imaging Reaction monitoring systems for chemical processes Diffusion-ordered spectroscopy advancements His publications demonstrate consistent focus on NMR methodology enhancement, with recent emphasis on sensitivity improvements and applications to organometallic compounds. Article trends show increased specialization in rare-earth complexes and metal-organic framework characterization. Research Leadership: Adams supervises graduate and undergraduate research projects in the NMR Methodology Group and collaborates widely with natural science researchers to apply NMR solutions to scientific challenges. He has led EPSRC-funded projects (EP/H024336/1, EP/L018500/1) and currently manages Manchester's NMR instrumentation facility.