جستجوی استاد راهنمای دانشگاهی

Vivek Vermaمشاهده پروفایل

مدرس

• Sustainable Purification of (Bio)Pharmaceuticals
• Peptide Self Assembly
• Crystal Engineering
• +۳ مورد دیگر

Dr. Vivek Verma is a UCC Futures Pharmaceuticals Lecturer in the Process and Chemical Engineering Department at the School of Engineering and Architecture, University College Cork. He specializes in pharmaceutical nucleation and crystallization, with notable contributions to templated crystallization of oligonucleotide drugs and sustainable purification processes. Previously, he held postdoctoral positions at Imperial College London (Marie Sklodowska Curie Fellow) and the University of Limerick. His research interests include peptide self-assembly, engineered surfaces, and lipid nanoparticles for drug delivery. Education: Integrated BS-MS (Chemistry) from IISER Pune (2014) and PhD in Pharmaceutical Science from the University of Limerick (2018). Awards include the Marie Sklodowska Curie Fellowship (2021), SFI-IRC Pathways Fellowship (2024), and Best Presentation at Imperial College London's Post-doc Symposium (2024). Research focuses on developing sustainable pharmaceutical purification platforms and exploring secondary processing techniques. He has published in high-impact journals like Chemical Engineering Journal and Crystal Growth & Design , with two cover features. A US patent (US20230111202A1) for nanoparticle technology is among his innovations. Funded projects include €564k SFI-IRC grant for oligonucleotide crystallization and €224k EU Marie Curie Fellowship. He mentors early-career researchers and organizes academic conferences, such as the 2018 British Crystal Growth Student Day.

Paulette Clancyمشاهده پروفایل

استاد

• Computational Materials Science
• Machine Learning for Materials Discovery
• Bayesian Optimization
• +۱۲ مورد دیگر

Paulette Clancy is the Edward J. Schaefer Professor in Engineering at the Whiting School of Engineering, Johns Hopkins University, where she leads a prominent research group in computational materials science. She is the director of research for the JHU Data Science and AI Initiative and associate director of the Johns Hopkins Center for Integrated Structure-Mechanical Modeling and Simulation (CISMMS), and a fellow of the Hopkins Extreme Materials Institute (HEMI). Education: Bachelor’s in Chemistry, Queen Elizabeth College, University of London (1974) DPhil in Physical Chemistry, Oxford University (1977) Postdoctoral research at Cornell University and London University Her research focuses on the atomic- and molecular-scale modeling of semiconductor materials, particularly organic and hybrid systems. Key areas include advanced organic materials (covalent organic frameworks, organic electronics), algorithm development (machine learning, Bayesian optimization, force fields), electronic materials (III-V semiconductors), and nucleation and crystal growth (perovskites, quantum dots). She develops physics-informed machine learning frameworks like PAL 2.0 to accelerate materials discovery. The recent publications highlight a strong trend in integrating machine learning (especially Bayesian optimization) with computational chemistry to model and predict material behavior during processing. Topics span perovskite crystallization, gallium nitride growth, polymer thermoelectrics, and quantum dot self-assembly, reflecting a broad impact in semiconductors , renewable energy materials , and nanomaterials . Scientific Awards and Honors: Fellow, Royal Society of Chemistry Fellow, American Institute of Chemical Engineers (AIChE) AIChE National Women’s Initiatives Mentoring Award Alice Cook Award (Cornell) Zellman Warhaft Award (Cornell) Clancy is a dedicated mentor, having advised numerous PhD and master’s students who have gone on to careers in academia and industry. Her group has received funding for AI-driven microelectronics training through a $2.7M NSF award. She is also a founding chair of Women in Science and Engineering at Cornell and a strong advocate for diversity in STEM. Labs and Teams: Clancy Research Group, JHU – focused on computational materials discovery Collaborator with Mitra Taheri’s group on real-time materials monitoring Director of Research, JHU Data Science and AI Initiative Associate Director, CISMMS Fellow, HEMI

• Energy Storage
• Electrochemistry
• Materials Science
• +۳ مورد دیگر

Dr. Alisa Bogdanova is a Doctoral Researcher at the Department of Chemistry and Materials, Aalto University, focusing on advanced energy storage materials and synthesis techniques. Her research bridges electrochemistry, materials science, and nanotechnology. Institution: Aalto University Department: Chemistry and Materials Role: Doctoral Researcher Research Interests include: Atomic Layer Deposition (ALD) for battery component surface modification Development of binder-free cathode architectures using single-walled carbon nanotubes Optimization of Ni-rich cathodes for lithium/sodium-ion batteries Application of machine learning in nanomaterial synthesis processes Understanding sulfur and hydrogen effects in carbon nanotube growth mechanisms Recent Publications demonstrate expertise in electrochemical energy conversion, with a focus on coating technologies and nanotube integration for improved battery performance. Collaborations include researchers from Aalto University’s Electrochemical Energy Conversion group and international teams investigating carbon nanomaterial synthesis.

Jozef Lengyelمشاهده پروفایل

پژوهشگر ارشد

• Environmental Physical Chemistry
• Atmospheric Chemistry
• Solvation Chemistry
• +۳ مورد دیگر

Jozef Lengyel is a Research Fellow at the Department of Physical and Theoretical Chemistry under the TUM School of Natural Sciences at the Technische Universität München . His work focuses on molecular-level understanding of atmospheric processes and catalytic reactions using clusters and subnanometer-sized particles. Research Themes : Environmental Physical Chemistry, Atmospheric Particle Formation, Solvation Chemistry, Gas-Phase Ion Reactions Awards : Emmy Noether Program (DFG), Alexander von Humboldt Fellowship, Lise Meitner Fellowship, Journal of Mass Spectrometry Award Education : PhD from University of Chemistry and Technology Prague (collaboration with Heyrovsky Institute) Lengyel’s experimental methods address atmospheric aerosol nucleation and cluster dynamics , contributing critical data for climate models. His work spans heterogeneous reaction mechanisms and catalysis , particularly in methane activation and oxidation processes. Recent publications highlight advancements in gas-phase cluster analysis and kinetic modeling of aerosol formation. Scientific honors reflect recognition in both physical chemistry and mass spectrometry communities. Selected Scientific Awards : Emmy Noether Junior Research Group (DFG, 2020) Alexander von Humboldt Research Fellowship (2018) Lise Meitner Fellowship (Austrian Science Fund, 2016) Journal of Mass Spectrometry Award (2014) Gordon F. Kirkbright Bursary Award (2014)

Christiane Hellingمشاهده پروفایل

استاد

• Astrophysics
• Exoplanet Atmospheres
• Cloud Formation
• +۵ مورد دیگر

Christiane Helling is Full Professor in Weltraumwissenschaften (Space Sciences) at Graz University of Technology and Director of the Institute for Space Research Graz (IWF) at the Austrian Academy of Sciences. She previously held leadership roles at the University of St Andrews, including Director of the Centre for Exoplanet Science, and has been a Senior Scientist at the Netherlands Institute for Space Research. Habilitation in Astrophysics (TU Berlin) PhD in Astrophysics (TU Berlin, with distinction) Diploma in Physics (TU Berlin) Her research focuses on exoplanet and brown dwarf atmospheres, cloud microphysics, charge processes, and atmospheric chemistry. She integrates hydrodynamic simulations with space observations from missions like CHEOPS, JWST, and PLATO to map cloud distributions and study planetary climate. Her recent publications emphasize time-dependent cloud formation, thermodynamic disequilibrium in planetary disks, and exoplanet atmospheric characterization using space telescopes. Key collaborations include the CHAMELEON project (virtual laboratories for exoplanet atmospheres) and the MSG model for cloudy sub-stellar atmospheres. ERC Starting Grant (LEAP Project: Lightning, Electrical and Atmospheric Processes on exoplanets) Marie-Curie Innovative Training Network (CHAMELEON)

Federico Ciardoمشاهده پروفایل

استادیار

• Geomechanics
• Subsurface Engineering
• Fault Dynamics
• +۵ مورد دیگر

Federico Ciardo is an Assistant Professor of Civil and Environmental Engineering at Northwestern University, specializing in geomechanics and subsurface engineering. His research focuses on understanding deformation mechanisms in brittle rocks and fault zones under fluid injection, aiming to improve predictive models for geo-engineering applications like geothermal energy and CO2 sequestration. He leads the GEOFORCE Group, which develops advanced computational and theoretical approaches to study subsurface processes across multiple scales. Education: Ph.D. in Mechanics from École Polytechnique Fédérale de Lausanne (EPFL, Switzerland), M.Sc. and B.Sc. in Civil/Structural Engineering from the University of Bologna, Italy. Research Interests: Investigating fluid-driven deformation instabilities in fractured rocks, seismic hazard mitigation, and the interplay between in-situ stresses and external forces. Key topics include aseismic/a-seismic slip dynamics, hydraulic stimulation effects, and fault zone heterogeneity. His work integrates fracture mechanics, numerical modeling (e.g., boundary element methods), and scaling arguments to achieve mechanistic insights. Scientific Contributions: Published extensively on induced seismicity forecasting, fault slip nucleation, and hybrid hydromechanical models. Notable recognition includes the EPFL Doctoral Program Thesis distinction award (2020). Labs/Teams: Principal investigator of the GEOFORCE Group, affiliated with the Paula M. Trienens Institute for Sustainability and Energy. Collaborates on projects involving underground laboratories (e.g., Bedretto Lab) and geothermal energy systems.

Kimberly Pratherمشاهده پروفایل

استاد

• Atmospheric Chemistry
• Climate Sciences
• Aerosol-Cloud Interactions
• +۷ مورد دیگر

Kimberly Prather is a Distinguished Professor at the University of California, San Diego, jointly appointed at the Scripps Institution of Oceanography and the Department of Chemistry and Biochemistry. She holds the Distinguished Chair in Atmospheric Chemistry and leads major research centers, including the NSF Center for Aerosol Impacts on Climate and Environment (CAICE) and the Meta-Institute for Airborne Disease in a Changing Climate. Her work focuses on aerosol impacts on climate, air quality, and public health, with interdisciplinary expertise spanning atmospheric chemistry, microbiology, and environmental science. Dr. Prather earned her B.S. (1985) and Ph.D. (1990) in Chemistry from UC Davis. Her research utilizes advanced techniques like aerosol time-of-flight mass spectrometry (ATOFMS) and the SOARS facility to study ocean-derived aerosols, bioparticle transport, and climate interactions. She investigates how pollutants, pathogens, and marine emissions influence human health and climate dynamics through aerosol-cloud interactions and atmospheric transport. Research Highlights: Development of ATOFMS for real-time aerosol analysis. Pioneering studies on airborne pathogens and SARS-CoV-2 transmission during the pandemic. Leadership in CAICE, simulating ocean-atmosphere systems to study aerosol chemistry. Advocacy for indoor air quality policies and safe reopening strategies. Awards: 2024 National Academy of Sciences Award in Chemical Sciences 2023 Gustavus John Esselen Award 2022 Pittsburgh Analytical Chemistry Award Member of National Academy of Sciences (2020) and National Academy of Engineering (2019) Collaborations: Her team collaborates with health sciences experts, engineers, and microbiologists to address interdisciplinary challenges, including climate-driven airborne disease risks and urban air quality solutions. Current projects include tracking ocean-derived pollutants and developing predictive models for public health alerts.

Brian B Lairdمشاهده پروفایل

استاد

• Computational Materials Science
• Applied Statistical Mechanics
• Theoretical and computational chemistry
• +۷ مورد دیگر

Brian B. Laird is a Professor in the Department of Chemistry at the University of Kansas, with courtesy appointments in Chemical & Petroleum Engineering and Physics & Astronomy. His research focuses on computational materials science and applied statistical mechanics, particularly in understanding the macroscopic properties of materials through microscopic molecular interactions. Dr. Laird's research spans three main areas: the structure and thermodynamics of condensed phase interfaces, phase-equilibrium and transport properties of novel solvent media for environmentally beneficial catalysis, and the development of new algorithms for molecular modeling. His work combines molecular dynamics simulations with statistical mechanics to study complex systems like multicomponent alloys, molecular systems, and gas-expanded liquids. The Laird Research Group has made significant contributions to understanding crystal-melt interfaces, solid-liquid interfacial premelting, and the properties of gas-expanded solvent systems. His recent publications (2022-2025) reveal a continued focus on interfacial phenomena, particularly crystal-melt interfaces and liquid surfaces, with increasing attention to amorphous silica systems and zeolites. The research shows a strong interdisciplinary approach, combining computational chemistry with materials science and engineering applications. Many recent papers involve collaborations with international research groups, particularly in China and the UK. KU Chemistry Faculty Research Impact Award (September 2022) Marnie and Bill Argersinger Dissertation Award (2022) Jankunas Doctoral Dissertation Award in Chemical Physics (2022) External Senior Fellow of the Freiburg Institute for Advanced Studies Dr. Laird has advised numerous graduate students including Seth Martin, Zeke Piskulich, Joyce Nguyen, and Micah Welsch, many of whom have received prestigious awards for their dissertation work. His research has been supported by collaborations with the Center for Environmentally Beneficial Catalysis and the NSF-funded Networks for Materials Synthesis and Design program. The Laird Research Group maintains active collaborations with multiple research groups at KU and internationally, particularly with the Yang group at East China Normal University.

Robin Lewis Modiniمشاهده پروفایل

پژوهشگر

• Atmospheric Aerosols
• Aerosol Optics
• Aerosol Health Effects
• +۴ مورد دیگر

Robin Lewis Modini is a Tenured Staff Scientist at the Paul Scherrer Institute (PSI) in Switzerland, working within the Laboratory of Atmospheric Chemistry since 2012. He leads research on atmospheric aerosols with expertise in aerosol optics, health impact mechanisms, and climate interactions. His position evolved from Tenure-Track Scientist (2016-2020) to Tenured Staff Scientist (2020-present), following postdoctoral work at EPFL (2012-2016) under Prof. Satoshi Takahama and Scripps Institution of Oceanography (2010-2012) under Prof. Lynn Russell. Education includes: PhD in Physics from Queensland University of Technology, Australia (2007-2010) with thesis on marine aerosol water uptake under Prof. Zoran Ristovski Bachelor of Applied Science with Honours in Physics from Queensland University of Technology, Australia (2002-2005) His research centers on aerosol health effects through oxidative potential measurements (SNSF project), in situ characterization of black carbon optical properties (ACTRIS/EUROCHAMP), and bridging observational gaps between ground-based and remote sensing data (BISAR project). Key methodologies involve the Single Particle Soot Photometer (SP2), machine learning applications, and field campaigns at Jungfraujoch and Zeppelin Observatory. Current work emphasizes combustion aerosol toxicity and Arctic aerosol-cloud interactions. Recent publications (2022-2025) show consistent focus on instrument validation, oxidative potential quantification, and black carbon behavior across environments. Trends include advancing real-time health-relevant metrics (e.g., dithiothreitol assays), refining optical property measurements (CAPS monitors, polar nephelometers), and analyzing transcontinental pollution transport (Africa-Amazon, Bolivia-Andes). International collaborations through ACTRIS and EUROCHAMP underpin high-impact work in Aerosol Science and Technology, Atmospheric Chemistry and Physics, and Nature Communications. No scientific awards were mentioned in the provided text. Modini directs SNSF-funded health impact studies and participates in European projects (ACTRIS, EUROCHAMP, BISAR) examining aerosol optical properties and oxidation processes. His AC/BC project conducted black carbon measurements in Arctic clouds at Svalbard's Zeppelin Observatory. While he served as postdoc adviser at EPFL and Scripps, no current advisees are listed. Notable grants include Swiss National Science Foundation support for aerosol health research and European infrastructure funding for chamber studies. He operates within the Aerosol Physics Group at PSI's Laboratory of Atmospheric Chemistry, utilizing SP2 photometers and custom polarimetric instruments. The group conducts field campaigns across Switzerland (Jungfraujoch), Bolivia (La Paz), Southern Ocean (Antarctic Circumnavigation Expedition), and Arctic regions, with international teams including ETH Zurich and UC San Diego collaborators. Current efforts focus on machine learning integration for aerosol-cloud interaction modeling and health metric development.

Gollas, Bernhardمشاهده پروفایل

دانشیار

• Electrochemistry
• Electrodeposition
• Reaction Mechanisms
• +۶ مورد دیگر

Bernhard Gollas is an Associate Professor at the Institute for Chemistry and Technology of Materials at Graz University of Technology since 2009. He studied chemistry at the University of Tübingen and the University of Oregon, earning his PhD in molecular electrochemistry in 1996. After postdoctoral work at the University of Southampton, he joined TU Graz in 2001 as Assistant Professor and later held leadership roles at the Centre for Electrochemical Surface Technology (2001-2014). His research spans electrochemistry, electrodeposition mechanisms, and functional coatings with applications in energy storage and industrial electroplating. Research Interests include: Electrochemistry of solid/liquid interfaces Electrodeposition from deep eutectic solvents Spectroelectrochemical reaction mechanisms Electrochemical quartz-crystal microbalance (EQCM) Functional coatings for corrosion resistance Post-lithium battery materials (Mg, Zn, Al) Publication Trends show focus on electrochemical energy storage (zinc-air, aluminum, magnesium batteries), green solvents, and advanced surface characterization techniques like PM-IRRAS and AFM-SECM. His work addresses dendritic growth suppression, hydrogen evolution mitigation, and industrial electroplating innovations. Research Group includes 20+ members and alumni working on electrochemical methods, coating technologies, and energy storage systems. Collaborative projects like ECOCAPS , IP-URFC , and Uniform highlight his interdisciplinary approach. Contact : Phone: +43 316 873-32338 Email: bernhard.gollas@tugraz.at Room: CE.02.030 Institute: Stremayrgasse 9, 8010 Graz

Zohar Yosibashمشاهده پروفایل

استاد

• Fracture Mechanics
• Biomechanics
• Computational Mechanics
• +۴ مورد دیگر

Prof. Zohar Yosibash is a faculty member at the School of Mechanical Engineering within the Faculty of Engineering at Tel Aviv University. He serves as Vice Dean for Research and Industry Relations and heads the Computational Mechanics and Experimental Biomechanics Laboratory . Previously, he was a Professor at Ben-Gurion University (1995-2017) and an Associate Professor at Brown University (2001-2007). Education: BSc in Aeronautical Engineering, Technion (1987) MSc in Applied Mathematics, Tel Aviv University (1991) DSc in Mechanical Engineering, Washington University, USA (1994) His research focuses on fracture mechanics , biomechanics of bones and arteries , and AI-driven computational modeling . He applies high-order finite element methods (h/p-FEM) and phase field models to study crack propagation, bone fracture risk, and arterial mechanics. Recent work integrates machine learning (e.g., nnU-Net) for tumor segmentation and autonomous finite element analysis. Articles Trends: Recent publications emphasize 3D fracture mechanics for elliptical cracks CT-based finite element analysis for bone diagnostics phase field modeling of arterial responses machine learning in biomedical imaging failure criteria for V-notches multi-scale simulations in geophysics and medicine Scientific Awards: Hans Fischer Senior Fellow (2009) European Structural Integrity Society Fellow (2020) International Association for Computational Mechanics Fellow (2020) Additional Contributions: He co-founded two startups and served as President of the Israel Association for Computational Methods in Mechanics (2015-2021). His work bridges experimental, theoretical, and numerical approaches, with over 130 peer-reviewed articles and a Springer monograph on singularities.

• Cloud microphysics
• Aerosol-cloud interactions
• Turbulence effects on microphysics
• +۴ مورد دیگر

Dr. Jens Voigtländer is a Research Fellow in the Department of Atmospheric Microphysics at the Leibniz Institute for Tropospheric Research (TROPOS) in Leipzig, Germany. Affiliated with the Cloud Working Group since completing his PhD in 2010, his work centers on cloud-aerosol interactions, droplet activation processes, and instrumentation development for atmospheric measurements. His research directly contributes to understanding climate-relevant microphysical processes through laboratory and field studies. His academic background includes teacher training in mathematics and physics at the University of Leipzig (1999-2000), followed by meteorology studies culminating in a 2005 diploma thesis on traffic impacts on urban particle distributions. He earned his PhD in 2010 with research on hygroscopic growth and cloud condensation nuclei activation of organic/inorganic compounds using LACIS experimental data and computational modeling. Voigtländer's research spans cloud microphysics, aerosol-cloud-turbulence interactions, and spatiotemporal aerosol distribution analysis. He specializes in droplet activation mechanisms, ice nucleation processes, and miniaturization of atmospheric instrumentation. His work bridges laboratory experiments with real-world atmospheric observations to improve climate model parameterizations. Analysis of his 2014-2018 publications reveals dominant themes in ice nucleation instrumentation (notably the SPIN spectrometer development), aircraft-based aerosol characterization (CARIBIC program), and fundamental studies of Criegee intermediate chemistry. His work consistently integrates experimental measurements with computational modeling to address aerosol impacts on cloud formation. Scientific contributions include: Development of the SPIN ice nucleation spectrometer Parameterization of sea-salt hygroscopic growth Characterization of biological ice nuclei from pollen Investigation of Criegee intermediate reaction kinetics As a core member of TROPOS' Cloud Working Group, Voigtländer leverages the LACIS facility for controlled microphysical studies while contributing to international collaborations like CERN's CLOUD experiment. His instrumentation miniaturization efforts enable novel spatiotemporal atmospheric measurements critical for climate research.

Paul Winklerمشاهده پروفایل

استاد

• Heterogeneous Nucleation Processes
• Nanoparticle Dynamics
• Condensation Processes in Aerosol Systems
• +۳ مورد دیگر

Univ.-Prof. Dr. Paul Winkler is a Professor and Deputy Head of the Research Group in Aerosol Physics and Environmental Physics at the University of Vienna's Faculty of Physics. His research focuses on heterogeneous nucleation processes, nanoparticle dynamics, and aerosol systems. He leads major projects like the ERC Consolidator Grant (NANODYNAMITE, 2014–2019) and the EU-funded CLOUD-DOC (2023–2026). Winkler has presented widely on topics like nanoplastic aerosol nucleation and aerosol characterization techniques at conferences such as the International Aerosol Conference (IAC). His work bridges fundamental aerosol science with environmental and climate applications. Education: PhD in Aerosol Physics (not explicitly stated, inferred from role). Key Projects: CLOUD-DOC (EU-MASCA-ITN, 2023–2026) NANODYNAMITE (ERC Grant, 2014–2019) CLOUD-MOTION (EU-MSCA-ITN, 2018–2021) Awards: FWF Erwin-Schrödinger Fellowship (2014–2019), NCAR Awarded Study Program (2009–2011). Research Interests: Winkler explores mechanisms governing aerosol formation, including nanoparticle generation from plastics, heterogeneous nucleation, and the role of chemical species like iodine oxoacids. His lab develops advanced measurement tools like the versatile condensation particle counter (TSI 3789) and ion mobility classifiers. Publications: Over 136 articles, focusing on topics like atmospheric nanoparticle growth, isoprene-driven nucleation, and nanoplastic aerosol behavior. Recent work includes insights into upper-tropospheric particle formation and the environmental impact of nanoplastics.

James E Gardnerمشاهده پروفایل

استاد

• Volcanology
• Magmatic Processes
• Experimental Petrology
• +۳ مورد دیگر

James E Gardner is a Professor in the Department of Earth and Planetary Sciences at the Jackson School of Geosciences, University of Texas at Austin, holding the Third Mr. and Mrs. Charles E. Yager Professorship. His research focuses on volcanic eruptions, magmatic processes, and experimental petrology, with emphasis on bubble nucleation in magmas and caldera-forming eruptions. He leads a state-of-the-art experimental laboratory capable of simulating high-pressure magma conditions (up to 1400°C and 5000 bars). Key research areas include studying active volcanic systems globally (USA, Mexico, Kamchatka), experimental determination of volatile solubility in magmas, and the role of pre-eruption degassing in eruption dynamics. Recent work addresses multi-component volatile solubility, bubble nucleation mechanisms, and magma ascent rates. His experimental setups include cold-seal and TZM pressure vessels for studying melt degassing under controlled conditions. Publications span 20+ years, emphasizing bubble nucleation kinetics, pyroclastic density currents, and silicic magma evolution. His work integrates field observations with laboratory experiments and numerical models to understand volcanic hazards and eruption processes. The experimental lab under construction will advance studies on magma-volatile interactions and ore body formation linked to magmatism. Notably, Dr. Gardner’s research bridges fundamental magma physics with applied volcanic hazard assessment, contributing to understanding explosive eruption triggers and conduit dynamics. His collaborative projects include NSF-funded studies on bubble nucleation models and lunar magma ocean processes.

• Materials Science
• Computational Materials Modelling
• Crystal Plasticity
• +۳ مورد دیگر

Edmund Tarleton is an Associate Professor in the Department of Engineering Science at the University of Oxford and a UKAEA/Royal Academy of Engineering Senior Research Fellow in Materials Modelling for Fusion Energy. He holds a DPhil and MSc from Oxford and is a Supernumerary Fellow at St Anne’s College. His research focuses on computational materials science, particularly crystal plasticity and hydrogen effects in engineering materials. Key contributions include modelling dislocation dynamics, fusion energy materials, and microstructural heterogeneity. He has received prestigious awards, including the EPSRC Early Career Fellowship (2015–2021) and the 2019 Rising Star in Computational Materials Science Prize. His work bridges experimental observations with advanced simulations, addressing challenges in nuclear materials, metallic alloys, and hydrogen embrittlement. Edmund collaborates with institutions like UKAEA and leads projects on fusion reactor materials. His lab develops frameworks like OXFORD-UMAT for crystal plasticity simulations. Current research emphasizes predictive models for material behavior under extreme conditions, with applications in aerospace and energy sectors.