جست‌وجوی استاد و پژوهشگر

Michael Klasenمشاهده پروفایل

استاد

• Particle Physics
• Quantum Chromodynamics
• Physics beyond the Standard Model
• +۳ مورد دیگر

Prof. Dr. Michael Klasen is a leading theoretical physicist at the Institute of Theoretical Physics at the University of Münster, where he heads his eponymous research group. His work bridges nuclear and particle physics, with significant contributions to quantum chromodynamics and physics beyond the Standard Model. His research focuses on Particle Physics , Quantum Chromodynamics , and Physics beyond the Standard Model , with particular emphasis on understanding the quark-gluon structure of atomic nuclei and dark matter phenomena. His innovative approach connects microscopic quark-gluon dynamics with nuclear binding phenomena, creating a crucial bridge between nuclear and particle physics. Prof. Klasen's recent work analyzing nucleon binding at the quark-gluon level was recognized as a "Breakthrough of the Year 2024" by Physics World. His research group's publication in Physical Review Letters demonstrated how quarks and gluons behave differently in nucleon pairs than in free nucleons, fundamentally advancing our understanding of nuclear binding. Breakthrough of the Year 2024 from Physics World Leadership of Research Training Group 2149 "Strong and weak interactions - from hadrons to dark matter" Supervision of award-winning doctoral research including the Infineon Dissertation Prize 2025 Prof. Klasen has successfully mentored numerous PhD students, with 20 of his group's graduates continuing their academic careers at prestigious institutions including CERN and Stanford University. His research has been supported by major funding bodies including the German Research Foundation (DFG), the Helmholtz Alliance for Astroparticle Physics, and BMBF collaborative research programs. The Klasen working group maintains active collaborations with international research networks including CTEQ, DM@NLO, and RESUMMINO.

Cheuk Wai Taiمشاهده پروفایل

پژوهشگر

• Structure-Property Relationships
• Functional Materials
• Electron Microscopy
• +۶ مورد دیگر

Cheuk Wai Tai is a Senior Staff Researcher at Stockholm University's Department of Environmental and Materials Chemistry since 2009. He manages the transmission electron microscopes and sample preparation equipment at the Electron Microscopy Center and serves as Section Editor for the Journal of Electronic Materials. His work focuses on quantitative structure characterization in functional materials research, particularly within nanoscience and nanotechnology contexts. Education: Ph.D. in Applied Physics, The Hong Kong Polytechnic University, 2004 M.Phil. in Applied Physics, The Hong Kong Polytechnic University, 2001 M.Sc. in Physics, The Chinese University of Hong Kong, 1998 B.Sc. (Hons) in Engineering Physics, The Hong Kong Polytechnic University, 1997 Dip. in Mechanical Engineering (Computer Aided Engineering), Institute of Vocational Education (formerly Haking Wong Technical Institute), Hong Kong, 1992 His research centers on structure-property relationships in functional materials through advanced electron microscopy techniques. Current specializations include Pair Distribution Function (ePDF) & Diffuse Scattering, Energy Materials characterization, and EM sample preparation methodology development. The group maintains strong focus on translating structural data into functional performance metrics for nanomaterials. Recent publications (2013-2019) demonstrate consistent emphasis on electron microscopy applications for energy storage materials (batteries, photocatalysts) and functional ceramics. Key trends include structural disorder analysis in piezoelectrics, development of quantitative TEM methods like SUePDF, and nanoscale characterization of electrocatalyst surface phases. His work bridges materials chemistry with advanced imaging techniques. Scientific recognition includes: Fellow of The Royal Microscopical Society (U.K.) Senior Member of IEEE Marie Curie Fellowship (2007-2009) from European Commission Sir Edward Youde Memorial Fellowship (2003/2004) from Hong Kong S.A.R. Government He teaches Solid State Chemistry (KZ7003) and leads Introduction to Analytical Electron Microscopy (KZ8009), having previously taught Advanced Transmission Electron Microscopy (KZ8010) before 2011. Major grants supporting his work include: "Quantitative structural characterisation using 3D electron-based pair distribution function" (Swedish Research Council) "A Multidimensional Toolkit for Modern Electron Microscopy" (Swedish Foundation for Strategic Research) "Mitigating Ni-rich Li-ion cathode side-reactions" (Swedish Energy Agency, Co-applicant) He leads the Cheuk-Wai Tai group within Stockholm University's chemistry department and oversees operations at the Electron Microscopy Center, where his team develops and applies advanced characterization techniques for functional materials research.

Rodrigo Freitasمشاهده پروفایل

استاد

• Materials Science
• Computational Materials Design
• Machine Learning in Materials
• +۵ مورد دیگر

Professor Rodrigo Freitas holds the TDK Professorship in Materials Science and Engineering at MIT. His research focuses on computational materials design, bridging atomistic simulations with mesoscale microstructural analysis. He leads the Freitas Research Group, specializing in machine learning-driven modeling of materials kinetics and solidification processes. Education: B.S. and M.S. in Physics, University of Campinas, Brazil M.S. and Ph.D. in Materials Science & Engineering, UC Berkeley Research Interests: Professor Freitas investigates microstructural evolution in metals and alloys using advanced computational methods. Key areas include solidification mechanisms, interstitial atom behavior in superalloys, and machine learning applications for materials discovery. His work emphasizes bridging atomistic and mesoscale phenomena to guide industrial applications like semiconductor manufacturing and battery design. Publications Trend: Recent work emphasizes machine learning potentials for alloy modeling, short-range order analysis in high-entropy alloys, and kinetic modeling of complex chemical systems. Themes include alloy phase stability, defect dynamics, and data-driven materials discovery. Labs/Teams: Leads the Freitas Research Group at MIT, which develops novel computational tools for materials engineering.

B. Montgomery Pettittمشاهده پروفایل

استاد

• Biophysics
• Chemical Physics
• Computational Science
• +۷ مورد دیگر

B. Montgomery Pettitt is a Professor in the Department of Biochemistry and Molecular Biology at the University of Texas Medical Branch (UTMB). His research spans biophysics, chemical physics, and computational science, focusing on DNA compaction in bacteriophages, protein folding mechanisms, and multiscale modeling of biomolecular systems. Education: BS in Chemistry and Mathematics from University of Houston (1975), PhD in Physical Chemistry from University of Houston (1980) Postdoctoral Training: University of Texas (1980-1983), Harvard University (1983-1985) Research interests center on thermodynamic barriers in viral DNA packaging, protein solubility and phase transitions, and multiscale computational methods linking atomic and macroscopic properties. His work has implications for genomics, nanotechnology, and therapeutic delivery systems. Key publication themes include DNA conformational dynamics, protein collapse thermodynamics, solvation energetics, ion pair interactions in protein-DNA complexes, and validation of continuum-solvent models. These studies employ computational approaches and experimental data integration. His laboratory develops theoretical frameworks and computational tools to analyze solute-solvent interactions, leveraging proximal distribution functions and activity models to understand biological processes across disparate length and time scales.

• Collider Physics
• Precision Computations
• Effective Field Theories
• +۴ مورد دیگر

Robert Szafron serves as a Scientist in the High Energy Theory group at Brookhaven National Laboratory's Physics Department since 2021, having progressed from Assistant Scientist (2021-2022) to Associate Scientist (2023-2024) before attaining his current position in 2025. Prior to BNL, he held research appointments at CERN (Senior Research Fellow, 2019-2020), TU Munich (Postdoctoral Fellow, 2016-2019), and the University of Alberta (Postdoctoral Fellow, 2012-2016). His research centers on theoretical high-energy physics with core expertise in collider physics , precision computations , and effective field theories . Specialized areas include bound state physics, QCD and QED corrections, power corrections, and gravitational soft theorems. His methodological approach combines advanced perturbative techniques with resummation methods to address precision Standard Model calculations and beyond-Standard-Model phenomena. Analysis of his publication record (2011-2023) reveals consistent contributions to leading journals like Journal of High Energy Physics and Physical Review Letters, with recent work focusing on N3LO cross sections, muon g-2 anomalies, subleading-power corrections in B-physics, and wino dark matter calculations. His research demonstrates strong international collaboration patterns and addresses critical precision frontiers in particle physics. No scientific awards were mentioned in the available documentation. Information regarding student advising, research grants, or specific mentorship activities was not provided in the source materials. Szafron operates within Brookhaven National Laboratory's High Energy Theory group, a U.S. Department of Energy national lab facility specializing in theoretical particle physics. His work contributes to BNL's broader mission in advancing fundamental understanding of particle interactions through rigorous mathematical frameworks and computational techniques.

• Heterogeneous Catalysis
• Materials Science
• Crystallography
• +۳ مورد دیگر

Claudia Weidenthaler , now an Associate Professor at the University of Duisburg-Essen and group leader at the Max Planck Institut für Kohlenforschung , is renowned for her work in heterogeneous catalysis and materials science . Her research focuses on structure-property relationships of functional materials using in situ diffraction and X-ray spectroscopy . Studied geology, mineralogy, and crystallography at the University of Würzburg Completed her doctorate under Reinhard X. Fischer at the University of Mainz Postdoctoral work at the Universities of Bremen and Frankfurt Moved to Max Planck Institute in 1999, establishing solid-state analytics Her research spans mechanochemical synthesis , energy storage materials (e.g., aluminum hydrides), and solid-state transformations . Recent work includes CO2 hydrogenation , nanoparticle characterization , and metal phosphide synthesis . In 2023, she was honored with the Agricola Medal for her contributions to applied mineralogy. She actively promotes equal opportunities and science outreach as an Equal Opportunities Officer and coordinator of the institute's "Girls' Day" initiative. Advisees include PhD candidates Christos Sidiropoulos and Teja Yanamandram Recipient of the Agricola Medal (2023) Developed unconventional methods combining mechanosynthesis with synchrotron X-ray diffraction Her publications highlight in situ/operando methods for studying catalysts under real conditions, with applications in hydrogen storage , electrocatalysis , and nanomaterials .

• Nuclear materials chemistry
• Experimental thermodynamics
• Computational thermodynamics
• +۹ مورد دیگر

Dr. Anna Louise Smith is an Associate Professor in the Reactor Physics and Nuclear Materials section at the Radiation Science and Technology department of Delft University of Technology (TU Delft). She is a physical chemist and materials scientist specializing in nuclear materials, with expertise in both experimental and computational approaches to studying advanced nuclear fuel systems. Dr. Smith earned her "diplôme d'ingénieur" from Chimie ParisTech in 2011, conferring a Master of Science in Chemistry and Chemical Engineering. She simultaneously completed an M.Phil. in Advanced Chemical Engineering from the University of Cambridge. She received her PhD in Materials Science and Metallurgy from Cambridge in 2015, after spending three years at the Joint Research Centre in Karlsruhe, Germany, where she developed expertise in nuclear fuel chemistry and chemical thermodynamics of actinide materials. Her research focuses on the chemistry of advanced nuclear fuels, including ceramics (oxides) and molten salts (fluorides and chlorides), with particular interest in structure-property relationships. She combines experimental and computational studies to investigate physico-chemical properties from atomic to macroscopic scales, with applications to next-generation nuclear reactor technologies emphasizing safety and sustainability. Her current interests include the chemistry of fission products in oxides and molten salts, interaction chemistry between fuel, coolant, and cladding materials, and corrosion issues at high temperatures in nuclear reactor environments. Analysis of Dr. Smith's recent publications (2022-2025) reveals a strong focus on thermodynamic properties of molten salt systems, particularly those relevant to nuclear fuel cycles. Her work spans fundamental studies of actinide chemistry in molten fluorides and chlorides, corrosion mechanisms between molten salts and structural materials, and the development of thermodynamic models for complex multi-component systems essential for molten salt reactor design. She has made significant contributions to understanding the behavior of thorium-based fuel systems and corrosion products in high-temperature environments. Dr. Smith has established a research team and laboratory at TU Delft specifically designed for handling uranium and thorium materials. Her work contributes to several major European projects focused on advanced nuclear technologies, including the MIMOSA and ENDURANCE projects that explore the safety and performance of molten salt reactors for deployment in the European Union. She collaborates extensively with researchers across Europe and has published over 50 research outputs including articles, book chapters, and review papers.

Samarage Sameera Pereraمشاهده پروفایل

پژوهشگر

• Materials Chemistry
• Solid-State Chemistry
• X-ray Diffraction
• +۳ مورد دیگر

Samarage Sameera Perera serves as Senior Research Scientist at Wayne State University's Lumigen Instrumentation Center within the Department of Chemistry. Since joining as a Postdoctoral Fellow in 2019, he has specialized in materials characterization using X-ray photoelectron spectroscopy (XPS/UPS) and powder X-ray diffraction to analyze powders, alloys, and thin films. His academic credentials include: Ph.D. in Chemistry, Wayne State University (2019) M.Sc. in Polymer Chemistry, University of Sri Jayewardenepura B.Sc., University of Sri Jayewardenepura Dr. Perera's research spans Materials Chemistry and Solid-State Chemistry , with core expertise in structural characterization of inorganic materials via Rietveld refinement and pair distribution function analysis. His current work develops advanced XPS/UPS methodologies while investigating luminescent materials and electron transport phenomena. The instrumentation center under his stewardship provides critical training and analytical support for university researchers. Analysis of his 15 most recent publications (2020-2025) reveals three dominant research trajectories: rare-earth activated phosphors for thermometry/upconversion, electron transport in metallosurfactants for molecular electronics, and sustainable materials for environmental remediation like phosphate removal. These intersect at the fundamental study of structure-property relationships in novel materials. As a core facility leader, Dr. Perera directly enables cross-disciplinary research through user training and method development, positioning the Lumigen Center as a hub for advanced materials characterization at Wayne State University.

• Energy Storage and Conversion
• Materials Science
• Nanostructured Materials
• +۶ مورد دیگر

Dr. Xiao Hua is a Lecturer in the Department of Chemistry at Lancaster University, affiliated with the Energy Lancaster initiative. Her research focuses on structure-property relationships in energy materials, particularly nanostructured, defected, and disordered systems for applications in rechargeable batteries, photovoltaics, and heterogeneous catalysis. She specializes in operando pair distribution function (PDF) measurements , combining these with structure modeling and big-data approaches to extract mechanistic insights. Current projects include atomic structure studies of energy storage materials, solid-state NMR investigations of layered double hydroxides, and electrochemically assisted synthesis of disordered cathodes. Her publications (2024) span topics like environmental remediation materials, nanoporous carbon capacitance, solid-state battery electrolytes, and electrocatalyst design. She supervises PhD students Christopher Cook, Sreenivasan Kiritharan, and Sarah McKinney. Contact: x.hua1@lancaster.ac.uk | Office A018, Faraday Building.

Volker Deringerمشاهده پروفایل

دانشیار

• Theoretical Chemistry
• Computational Materials Science
• Machine Learning in Chemistry
• +۳ مورد دیگر

Volker Deringer is an Associate Professor of Theoretical and Computational Inorganic Chemistry at the University of Oxford's Department of Chemistry. He holds a Tutorial Fellowship at St Anne's College and teaches Inorganic Chemistry to first- and second-year students at St Anne's and Oriel Colleges. His research focuses on combining quantum mechanics with machine learning to model materials at the atomic scale, with emphasis on amorphous solids, functional materials design, and interatomic potential development. Education: He earned his diploma (2010) and doctorate (summa cum laude, 2014) in Chemistry from RWTH Aachen University, Germany, under Prof. Richard Dronskowski. Postdoctoral positions included a Humboldt Fellowship at the University of Cambridge (2015) and a Leverhulme Early Career Fellowship (2017). Research Interests: Machine learning interatomic potentials, structural chemistry of amorphous solids, functional materials for energy storage and electronics. His work bridges theoretical/computational methods with experimental collaborations, emphasizing practical applications like phase-change memory materials and graphene oxide systems. Publications: Over 100 articles since 2017, including high-impact journals like Nature, Nature Chemistry, and Nature Communications. Recent work explores AI-driven materials discovery, amorphous silicon dynamics, and battery anode design. Key themes include accelerating simulations via ML, understanding disorder in materials, and developing transferable interatomic potentials. Grants/Awards: Recipient of Alexander von Humboldt and Leverhulme Fellowships. Active in cross-disciplinary projects combining AI and materials science. Labs/Teams: Leads a research group focused on computational materials design, collaborating with experimentalists globally. Involved in developing open-source tools like LOBSTER for chemical bonding analysis.

Paul Newmanمشاهده پروفایل

استاد

• Particle Physics
• Quantum Chromodynamics (QCD)
• High Energy Physics
• +۳ مورد دیگر

Paul Newman is a Professor of Physics at the University of Birmingham, leading the Birmingham Particle Physics Group and serving as Director of Research for the School of Physics & Astronomy. His research focuses on experimental studies of the strong nuclear force, particularly quark and gluon sub-structure of protons, gluon dynamics under high-density conditions, and collider physics at facilities like the LHC and future Electron-Ion Collider (EIC). He is actively involved in the ATLAS experiment at CERN and contributes to strategy for particle physics in the UK and Europe. Education: BA (Oxford), PhD, Fellow of the Institute of Physics (FInstP). Newman has taught undergraduate courses in classical mechanics, particle physics techniques, statistical physics, and current topics in particle physics. He frequently engages in public outreach, delivering talks on particle physics and science policy. Research Interests: Experimental high-energy physics, quantum chromodynamics (QCD), collider detector design (e.g., EIC's ePIC and LHeC), proton structure studies, and diffractive scattering processes. His work bridges HERA legacy data analysis with future collider projects, emphasizing precision measurements of parton distributions and strong coupling constants. Notable Activities: Chair of UK Particle Physics Strategy Group committees, leadership in EIC and LHeC initiatives, and collaborative efforts in detector technology (e.g., ATLAS Forward Proton Spectrometer). He also explores applications of precision clocks for measuring fundamental constant stability through QSNET. Awards: Fellowship of the Institute of Physics (FInstP). Labs/Teams: Birmingham Particle Physics Group, ATLAS Collaboration, EIC Physics Working Groups, and LHeC design teams.

Pawel Danielewiczمشاهده پروفایل

استاد

• Nuclear Theory
• Heavy-Ion Collisions
• Symmetry Energy
• +۴ مورد دیگر

Pawel Danielewicz is a Professor in the Department of Physics & Astronomy at Michigan State University, affiliated with the National Superconducting Cyclotron Laboratory (NSCL). His research focuses on nuclear theory, particularly the dynamics of heavy-ion collisions and the equation of state for dense nuclear matter. Education: Ph.D., University of Warsaw (1981) His work explores high-pressure nuclear environments created in central heavy-ion reactions, using transport theory to model compression, thermalization, and decompression phases. Key areas include symmetry energy , isospin diffusion , and quantum transport with applications to neutron stars and ultracold quantum gases. Recent publications emphasize deblurring techniques for source function reconstruction, optical potentials for rare-isotope beams, and equation of state constraints from GW170817. Articles from 2025-2022 span topics like pion production , neutron skins , and nonequilibrium Green's functions . His theoretical frameworks connect heavy-ion collision observables to nuclear matter properties, with cross-disciplinary implications for early cosmology and atomic traps via nonequilibrium dynamics.

Chaya Rappمشاهده پروفایل

دانشیار

• Computational Chemistry
• Protein Structure and Function
• Molecular Modeling
• +۳ مورد دیگر

Chaya Rapp is an Associate Professor and Chair of the Chemistry and Biochemistry Department at Stern College for Women, Yeshiva University. She holds a Ph.D. in theoretical chemistry from Columbia University. Her research focuses on computational methods to study protein structure and function, including molecular mechanics, quantum mechanics, and molecular dynamics. Notably, she secured an NIH R15 grant in 2011 for her work on post-translational modifications in proteins. Dr. Rapp teaches courses in general and physical chemistry and advises pre-health students. Education: B.A. in Chemistry, Columbia University M.A. in Chemistry, Columbia University Ph.D. in Theoretical Chemistry, Columbia University Research Interests: Dr. Rapp employs advanced computational techniques to investigate protein interactions and modifications. Her work addresses challenges in protein structure prediction, post-translational modifications (e.g., phosphorylation, sulfation), and cation-π interactions. She has participated in CASP5, a global protein structure prediction competition, and contributed to improving solvation models and force field validation in molecular simulations. Grants & Recognition: NIH R15 Grant (2011): "Computational Modeling of Post-translational Modification in Proteins" Teaching & Advisement: Dr. Rapp instructs undergraduate courses in general and physical chemistry and supports pre-health students through academic advisement. Her mentorship emphasizes preparing students for careers in healthcare and scientific research. Labs & Teams: While no specific lab is named, her research group collaborates on computational chemistry projects, leveraging advanced modeling tools to advance understanding of protein behavior.

• High-Entropy Alloys
• Refractory Alloys
• Additive Manufacturing of Metals
• +۵ مورد دیگر

Sheng Guo serves as an Assistant Professor in the Materials and Manufacturing unit at Chalmers University of Technology, where he has been employed since 2013. His research focuses on high-entropy alloys (HEAs) and refractory multi-component alloys with applications in high-temperature environments requiring exceptional mechanical properties, wear resistance, and corrosion resistance. His primary research interests include: Alloy design of concentrated multi-component alloys with equiatomic or near-equiatomic compositions Mechanical behavior characterization of high-entropy alloys Additive manufacturing of HEAs and medium-entropy alloys Oxidation and corrosion resistance mechanisms Microstructural evolution during processing and service conditions Analysis of his recent publications reveals strong emphasis on eutectic high-entropy alloys, refractory HEAs for ultrahigh-temperature applications, and the development of novel processing techniques including additive manufacturing. His work frequently examines the relationship between composition, microstructure, and mechanical properties across various temperature ranges. Dr. Guo leads multiple significant research projects funded by Vetenskapsrådet (VR), EU, and VINNOVA, including HOTBOX (thermal energy storage), CocoMag (multi-property magnets), and projects focused on additively manufactured medical HEAs and ultrahigh-temperature materials. His laboratory work involves extensive microstructural characterization, mechanical testing across temperature ranges, and development of novel alloy systems with targeted properties for specific applications. Current research directions include oxidation-resistant refractory HEAs, nitrogen-strengthened medium-entropy alloys, and composite materials for specialized industrial applications.

• Condensed Matter Physics
• Materials Science
• Atomic and Molecular Physics
• +۳ مورد دیگر

Dr. Andrew Martin is the Deputy Head of the Department of Physics at RMIT University's School of Science. His research focuses on developing advanced imaging techniques using X-rays and electrons, particularly at the Australian Synchrotron and international X-ray free-electron lasers. He specializes in diffraction-based methods for applications in condensed matter physics, biochemistry, cell biology, and materials science. Dr. Martin teaches undergraduate courses in Introductory Physics, Quantum Physics, and Scientific Programming, while also supervising postgraduate research. His work emphasizes classical and quantum coherence phenomena, with recent projects addressing crystal structure determination, ionic liquid behavior, and nanostructure analysis using cutting-edge X-ray and electron microscopy techniques. His research group collaborates with institutions globally, leveraging XFEL facilities to explore ultrafast dynamics and structural changes in materials. He is committed to advancing methodologies for real-time, high-resolution structural analysis in complex systems.