جست‌وجوی استاد و پژوهشگر

• Organic Solar Cells
• Photovoltaics
• Perovskite Solar Cells
• +۶ مورد دیگر

Dr James Ryan is a Lecturer in the Department of Chemistry at Swansea University's Faculty of Science and Engineering. He maintains an active research program focused on organic and hybrid electronic materials for energy applications, with particular emphasis on solar energy conversion technologies. His work bridges fundamental chemistry with practical engineering applications in renewable energy. Dr Ryan's primary research interests include: Organic and Perovskite Photovoltaics Memristive Devices and Molecular Electronics Nanomaterials for Energy Applications Charge Carrier Dynamics in Organic Semiconductors Quantum Confinement Effects in Nanocrystals His recent publications (2023-2025) demonstrate continued innovation in photovoltaic technologies, machine learning applications for molecular design, and fundamental studies of material properties. The research shows a clear trajectory from fundamental understanding of charge transport phenomena to practical applications in solar energy conversion. Dr Ryan actively supervises postgraduate students on projects related to organic quantum memristors, solar CO2 reduction, machine learning for molecular discovery, and advanced materials characterization. His supervisory approach emphasizes interdisciplinary collaboration across chemistry, physics, and engineering disciplines. As an educator, he teaches across the chemistry curriculum from foundational undergraduate courses to advanced masters-level topics, with a particular focus on integrating research insights into classroom instruction and laboratory experiences.

Michael Zaiserمشاهده پروفایل

استاد

• Materials Simulation
• Dislocation Dynamics
• Plasticity
• +۵ مورد دیگر

Professor Michael Zaiser is a distinguished academic at Friedrich-Alexander-Universität Erlangen-Nürnberg (FAU), where he holds the Chair of Materials Simulation within the Department of Materials Science. Since 2012, he has led research in computational materials science, with prior appointments at the University of Edinburgh where he served as Professor of Mechanics of Materials (2008-2012), Reader (2005-2007), and Lecturer (2001-2005). He maintains significant international collaborations as a Visiting Professor at Imperial College London since 2014 and previously served as Adjunct Professor of Physics at Michigan Technological University (2006-2012). Professor Zaiser's research spans computational materials science with particular expertise in dislocation dynamics, plasticity, fracture mechanics, and hierarchical materials. His work bridges theoretical physics and practical materials engineering, developing innovative computational approaches to understand material behavior at multiple scales. His research group employs advanced simulation techniques including continuum dislocation dynamics, peridynamics, and phase field modeling to investigate fundamental mechanisms of material deformation and failure. Recent work has focused on disordered mechanical metamaterials, hierarchical structures, and the relationship between microstructure and mechanical properties. Analysis of Professor Zaiser's recent publications reveals a strong focus on multiscale modeling approaches that connect atomic-level phenomena with macroscopic material behavior. His work demonstrates increasing integration of machine learning techniques with traditional computational methods, particularly in predicting material failure. The research spans diverse material systems including metals, ceramics, foams, and composites, with consistent emphasis on understanding how microstructural features govern mechanical properties. A notable trend is the investigation of hierarchical and disordered structures to achieve superior mechanical performance. Professor Zaiser leads an active research group at FAU's Department of Materials Science, supervising numerous doctoral students and postdoctoral researchers. His work has been supported by various research grants enabling extensive computational resources and collaborative opportunities with international institutions. His research group maintains strong connections with the Max Planck Society, Fraunhofer Institutes, and Helmholtz Association, reflecting FAU's position as one of Germany's most research-intensive universities. The research laboratory under Professor Zaiser's leadership focuses on computational materials science, with particular emphasis on developing and applying advanced simulation methodologies. The group maintains close collaborations with experimental researchers to validate computational predictions and guide new experimental investigations. Recent work has increasingly incorporated machine learning approaches alongside traditional physics-based modeling to address complex materials challenges.

• Multiscale Modeling
• Machine Learning
• Surface Science
• +۴ مورد دیگر

Karsten Reuter is a Director at the Fritz-Haber-Institut der Max-Planck-Gesellschaft in Berlin. His research spans multiple disciplines within computational chemistry and materials science, with a strong focus on heterogeneous catalysis, surface science, and energy conversion processes. With over 32,000 citations and an h-index of 91, he is a highly influential researcher in his field. Dr. Reuter's research interests primarily revolve around multiscale modeling , machine learning applications in materials science , surface science , heterogeneous catalysis , and energy conversion . His work bridges theoretical approaches with practical applications in catalysis and materials design. He has made significant contributions to the development of computational methods for studying surface reactions and catalytic processes at the atomic level. An analysis of his recent publications reveals a strong trend toward integrating machine learning with traditional computational chemistry methods. His work spans from fundamental surface science studies to practical applications in energy conversion and storage. The publications cover diverse subfields including catalysis modeling, quantum chemistry methods, surface adsorption phenomena, and materials informatics. His research increasingly focuses on multiscale approaches that connect atomic-scale simulations with macroscopic phenomena. Dr. Reuter has received numerous citations for his methodological contributions, particularly in kinetic Monte Carlo simulations, first-principles thermodynamics, and the development of computational frameworks for studying heterogeneous catalysis. His work on the 'ab initio molecular simulations with numeric atom-centered orbitals' has been particularly influential with over 3,000 citations. Throughout his career, Dr. Reuter has collaborated extensively with leading researchers in computational chemistry and materials science, including Matthias Scheffler, Volker Blum, and Harald Oberhofer. His research has been supported by various grants focused on advancing computational methods for materials discovery and catalysis research.

• Condensed Matter Physics
• Magnetism
• Spintronics
• +۴ مورد دیگر

Prof. Claus Michael Schneider serves as Head of the Electronic Properties Institute (PGI-6) at Forschungszentrum Jülich and maintains strong academic ties with the University of Duisburg-Essen where he teaches physics courses. His work bridges fundamental condensed matter physics with practical applications in spintronics and quantum technologies. As director of PGI-6, he leads a multidisciplinary team investigating the complex relationships between electronic structure and physical material properties. Dr. Schneider's research focuses on the intricate interrelations between electronic structure and physical properties of matter, with particular emphasis on magnetism, spintronics, and nanoscale phenomena. His group employs advanced photoelectron spectroscopic techniques ranging from high-resolution laboratory systems to synchrotron radiation-based nanospectroscopy, enabling unique combinations of high energy, spatial, and temporal resolution. Experiments are conducted at synchrotron facilities including DELTA (Dortmund), BESSY (Berlin), and ELETTRA (Trieste). Recent publications reveal a growing focus on quantum materials, with significant contributions to understanding orbital angular momentum in electrons for orbitronics applications and the development of 2D semimetals with spin-polarized conduction. His work spans fundamental quantum phenomena to practical applications in energy-efficient computing technologies. The research portfolio includes cutting-edge instrumentation development such as the Nano-Spintronics Cluster Tool and advanced microscopy techniques for nanoscale characterization. Under his leadership, PGI-6 maintains strong connections to the 2007 Nobel Prize in Physics awarded to Peter Grünberg for the discovery of giant magnetoresistance. The institute collaborates extensively with national and international academic and industrial partners, advancing the field of electronic materials for next-generation information technologies.

• Soft Matter Physics
• Polymer Science
• Interface Science
• +۵ مورد دیگر

Professor Regine von Klitzing leads the Soft Matter at Interfaces research group at the Institute for Condensed Matter Physics at Technical University of Darmstadt. She serves as Vice Dean of the Department of Physics and is recognized for her pioneering contributions to the physics of complex fluids in soft confinement. Her work bridges physics, chemistry, biology, chemical engineering, and material science through interdisciplinary investigations of interfacial phenomena. Her research focuses on soft matter systems, particularly stimuli-responsive polymer coatings including polyelectrolyte multilayers, polymer brushes, and microgel layers, as well as thin liquid films, foams, and emulsions. She employs advanced characterization techniques such as AFM and scattering methods (neutrons, X-rays, light) to investigate these complex systems. Her group covers the entire research spectrum from synthesis of polymer systems to designing novel hybrid materials and developing specialized sample environments for both laboratory and large-scale facilities. Analysis of her recent publications reveals strong trends in interfacial phenomena, with particular emphasis on microgel systems, nanoparticle-polymer interactions, and advanced characterization techniques. Her work spans fundamental soft matter physics while addressing practical applications in materials science and sustainability. The research shows increasing integration of multiple characterization techniques to provide comprehensive understanding of complex systems. Gentner-Kastler Prize 2025 from the German and French Physical Societies for groundbreaking contributions to complex fluids physics, German-French cooperation, and mentoring ECIS Solvay Award 2023 for pioneering studies on foams stabilized with soft particles and polymers LEAF Bronze Certificate for sustainable laboratory practices Multiple student poster awards at prestigious conferences including DPG Spring-Meeting and Microgels2024 Professor von Klitzing actively mentors students at all levels, with several of her doctoral and master's students receiving recognition for their research. Her group maintains strong laboratory infrastructure with specialized equipment for investigating soft matter systems, including advanced microscopy and scattering capabilities. The research combines fundamental investigations with practical applications, particularly in sustainable materials development. The Soft Matter at Interfaces group operates state-of-the-art laboratories with specialized equipment for investigating interfacial phenomena. The team develops custom sample environments for in-house use and large-scale facilities, demonstrating technical innovation alongside scientific discovery. Their work on sustainable laboratory practices earned them the LEAF Bronze Certificate, reflecting commitment to environmental responsibility in research.

• Nonlinear optics
• Fiber optics
• Quantum optics
• +۳ مورد دیگر

Dr. Vygandas Jarutis is an Associate Professor and Senior Researcher at the Laser Research Center, Vilnius University. His expertise spans nonlinear optics, fiber optics, and quantum optics, with a focus on laser beam manipulation and photon pair generation. Research Interests: His work explores advanced optical phenomena, including Laguerre-Gaussian beam focusing, bi-photon sources, and conical wave generation. Projects involve ultrafast spectroscopy and semiconductor material characterization. Teaching: He lectures on General Physics (since 2018) Quantum Optics (Master's level) Optics and physics of atoms (since 2007) Projects: Notable roles include executor in high-power laser systems and THz spectroscopy projects (2007-2015), with leadership in photonic crystal micro-resonators (2008-2009). Advising: Supervised 6 students' theses, including bachelor and master candidates, and mentored doctoral researcher Julius Vengelis.

• Ultrafast nonlinear optics
• Laser-matter interactions
• Physics

Gintaras Valiulis is a Professor at Vilnius University's Laser Research Center , specializing in Ultrafast nonlinear optics and Laser-matter interactions . His work focuses on advanced photonic phenomena including solitons, X-shaped light bullets, and parametric amplification. Key Research Themes : Nonlinear optical wave dynamics Ultrafast laser systems Photonic material characterization Notable Contributions : Pioneering studies on vortex solitons (2000), light bullets (2003), and parametric amplification (2008) published in Physical Review Letters and Physical Review A . Awards : Recipient of the National Science Prize (2004) Academic Leadership : Supervised doctoral students A. Zaukevičius and V. Jukna, while teaching courses in Atom and Nuclear Physics (bachelor’s), Ultrashort Pulse Optics (master’s), and Modern Optics and Spectroscopy (PhD level).

Dipanjan Mazumdarمشاهده پروفایل

دانشیار

• Experimental Condensed Matter Physics
• Novel Electronic Materials
• Spintronics
• +۳ مورد دیگر

Dipanjan Mazumdar serves as an Associate Professor in the Department of Physics at Southern Illinois University, specializing in experimental condensed matter physics. His research focuses on the growth and characterization of novel electronic and magnetic materials with atomic-level precision. His research interests include: Electronic properties of novel materials and heterostructures Interplay between spin, charge, lattice, and orbital degrees of freedom Design of high spin-polarization inverse-Heusler materials Magneto-transport properties of topological insulator heterostructures Recent publications reveal strong emphasis on topological insulators, 2D materials, and spintronics devices. His work spans material synthesis (PVD/CVD), computational modeling, and advanced characterization techniques including X-ray diffraction, magnetometry, and scanning probe microscopy. Notable scientific contributions include: Development of magnetoresistance devices (AMR, GMR, TMR) Investigation of electronic and magnonic topological insulators Optical characterization of few-layer topological materials He actively mentors graduate students including Hassana, Miller, Ricky, Said Bakkar, Yubraj Sapkota, and Stephen Hofer. His laboratory recently acquired a Rigaku Diffractometer and focuses on thin-film growth and physical property investigations. He teaches advanced courses in Magnetism, Magnetic Materials, and Spintronics (PHYS 575).

Dafei Yuanمشاهده پروفایل

پژوهشگر

• Organic Electronics
• Thermoelectric Materials
• Polymer Chemistry
• +۳ مورد دیگر

Dafei Yuan is a Postdoctoral Scholar at the Robert Mehrabian College of Engineering , University of California, Santa Barbara, affiliated with the Segalman Lab . His research focuses on organic semiconductors, thermoelectric materials, and polymer design for electronic applications. Research Interests Organic Electronics Thermoelectric Energy Conversion Conjugated Polymer Synthesis Charge Transport Optimization Nanoscale Material Engineering Publications (Selected Trends) : Recent work explores n-type polymer semiconductors , polymorph control in organic crystals , and interfacial doping techniques to enhance electrical conductivity and stability. Key themes include molecular architecture, heavy atom effects, and aggregation behavior in organic thermoelectrics and light-emitting transistors. Laboratory Affiliation : Works at the Segalman Lab, focusing on advanced materials for sustainable electronics and energy applications.

Peter Broekmannمشاهده پروفایل

دانشیار

• Electrochemistry
• Interfacial Science
• Materials Science
• +۴ مورد دیگر

Prof. Dr. Peter Broekmann is an Associate Professor at the University of Bern and head of the Interfacial Electrochemistry Group since 2019. His research focuses on atomic-scale characterization of solid/liquid interfaces and electrochemical processes for sustainable energy and industrial applications. 1991–1997: Chemistry studies, Bonn University 1997–2000: PhD in Surface Science, Bonn 2000–2001: Postdoc at University of Twente 2001–2007: Project Leader, Bonn 2007–2008: Industrial R&D, BASF SE 2008–2019: Lecturer, University of Bern 2019–present: Associate Professor, University of Bern Broekmann's research spans interfacial electrochemistry , CO2 electroreduction , and additive-assisted metal electroplating . His group develops techniques like in situ scanning tunneling microscopy (STM) and laser ionization mass spectrometry (LIMS) to analyze electrified interfaces. Key projects include CO2-to-syngas conversion, stability studies of gas diffusion electrodes (GDEs), and industrial Cu/Sn electroplating for semiconductor manufacturing. His recent publications highlight advancements in CO2 electrolysis (2025), electrochemical stability assessment (2024), and metal foam catalysts (2024). These works emphasize sustainable energy solutions, material optimization, and industrial process improvements. Scientific Awards: Feodor Lynen Fellowship (Alexander-von-Humboldt Foundation) Broekmann actively mentors PhD students and collaborates with visiting scientists, while securing funding from the SNSF Swiss Postdoctoral Fellowships. His group integrates electrochemical methods with materials synthesis to address energy and industrial challenges.

Vishal Agarwalمشاهده پروفایل

دانشیار

• Catalysis
• Biofuels
• Nucleation
• +۶ مورد دیگر

Vishal Agarwal is an Associate Professor in the Department of Chemical Engineering at Indian Institute of Technology Kanpur (IIT Kanpur). His research focuses on developing molecular-level understanding of complex systems in catalysis, biomass conversion, and nucleation processes. Dr. Agarwal received his PhD from the University of Massachusetts Amherst in 2012, followed by postdoctoral research at the University of California Santa Barbara from 2012-2016. He also holds an M.Tech from IIT Bombay (2006) and a B.Tech from Panjab University (2003). His research interests span Catalysis, Biofuels, Nucleation, Gas-Surface and Liquid-Surface Interactions, Molecular Simulation, Ab initio Molecular Dynamics, Density Functional Theory, Rare-Event Simulations, and Reaction Rate Theory. Dr. Agarwal's work primarily employs computational methods to investigate atomic-level processes that govern molecular transformations in various chemical systems. Analysis of his publication record shows a strong focus on computational chemistry applied to catalysis and materials science, particularly in the areas of zeolite chemistry, cellulose pyrolysis, and oxygen vacancy formation in metal oxides. His work bridges theoretical computational methods with practical applications in energy and materials. Research on cellulose decomposition highlighted in BioBased Digest and North American Clean Energy RG Madhudhane M. Tech. Best Masters Research Thesis Award, IITB, 2006 1st Prize in Technical Paper Presentation, Eureka-2002, PU, 2002 Dr. Agarwal has mentored several graduate students and has been involved in significant research projects related to computational chemistry and materials design. His laboratory at IIT Kanpur focuses on developing and applying advanced computational methods to understand complex chemical processes at the molecular level. The research group maintains active collaborations with institutions worldwide and has made notable contributions to the understanding of catalytic processes, biomass conversion mechanisms, and nucleation phenomena.

Andrew McShanمشاهده پروفایل

استادیار

• Structural Biology
• Biochemistry
• Immunology
• +۴ مورد دیگر

Andrew McShan serves as an Assistant Professor in the School of Chemistry and Biochemistry at the Georgia Institute of Technology, where he directs the McShan Lab focused on structural biology, immunology, and computational protein design. His research integrates experimental and computational approaches to investigate biomolecular structures with therapeutic relevance, particularly in immune receptor systems and lipid-protein interactions. His academic foundation includes: A.Sc. from University of Houston (2008) B.Sc. and Ph.D. from University of Kansas (2010, 2016) Postdoctoral Research at UC Santa Cruz (2016-2020) Postdoctoral Research at University of Pennsylvania & Children’s Hospital of Philadelphia (2020-2022) Research interests center on atomic-level characterization of biomolecules including de novo designed proteins, therapeutic peptides, lipid transfer proteins, and immunoreceptors (MHC molecules, T cell receptors, CD8 co-receptors). The lab specializes in determining structures and dynamics of these systems through solution NMR spectroscopy, X-ray crystallography, cryo-EM, and computational modeling, with particular emphasis on antigen presentation mechanisms and lipid-protein interactions. Current projects span structural biology of natural product biosynthesis, computational development for lipid-protein modeling, and engineering novel protein-based therapeutics. Recent publications (2023-2025) reveal strong integration of AlphaFold/RoseTTAFold applications with experimental validation, particularly in protein design, lipid-binding systems, and immune receptor characterization. Key trends include computational database development for lipid-protein interactions (BioDolphin), multistate protein design methodologies, and structural analysis of pathogen-derived antigens. Scientific recognition includes: NSF CAREER Award (2025) Shurl and Kay Curci Foundation Research Grant (2024) Dr. McShan mentors graduate students through comprehensive training in biochemical/biophysical techniques (SPR, ITC, NMR), structural biology methods, computational modeling, and immunological assays. His lab operations are supported by competitive research grants including the NSF CAREER award and Curci Foundation grant, which fund investigations into structural mechanisms of immune recognition and protein design principles. The McShan Lab maintains an explicitly inclusive environment welcoming LGBTQAI+ members, women, disabled scientists (including those with invisible disabilities), and scientists of color, fostering collaborative research in structural immunology and protein engineering.

Gabriella Anderssonمشاهده پروفایل

استاد

• Materials Physics
• Magnetism in Thin Films
• Multilayers and Superlattices
• +۳ مورد دیگر

Professor Gabriella Andersson is a leading materials physicist at Uppsala University , serving as Professor of Materials Physics within the Department of Physics and Astronomy. She has held numerous leadership roles including Deputy Head (2015-2020), Section Dean of Physics (2020-2023), and Director of Studies for the doctoral program in physics since July 2023. Education & Qualifications: FD (PhD) in Physics Docent in Physics Excellent Teacher Award (2013) Research Focus: Professor Andersson's research centers on the magnetic properties of thin films, multilayers, and nanostructures. Her work particularly emphasizes magneto-optical domain imaging using Kerr microscopy and the fine-tuning of magnetic properties through atomic-level engineering. She investigates how combinations of elements can create tailored magnetic effects, focusing on applications in micro- and nanometer-scale materials. Research Methodology: Her experimental approach includes sample fabrication using combinatorial sputtering and characterization through X-ray diffraction, magneto-optical Kerr effect (MOKE), and neutron scattering techniques. She has developed expertise in strain engineering and interface control to manipulate magnetic anisotropy and domain structures. Key Research Themes: Magnetism in amorphous and crystalline thin films Exchange coupling in magnetic multilayers Magnetic anisotropy engineering Domain imaging and magnetization dynamics Rare-earth-lean magnetic materials All-optical switching phenomena Scientific Recognition: Excellent Teacher Award (2013) Professor of Materials Physics (2015) Coordinated VR Graduate School in Materials Science (2008-2015) Funding & Grants: Her research has been supported by prestigious organizations including the Royal Swedish Academy of Sciences, the Royal Physiographic Society of Lund, Magnus Bergvall Foundation, Göran Gustafsson Foundation, STINT, Carl Tryggers Foundation, and the Swedish Research Council (Vetenskapsrådet). Teaching & Supervision: Professor Andersson teaches undergraduate courses in mechanics, electromagnetism, and measurement technology. She has coordinated the VR graduate school in materials science and serves as director of studies for the doctoral program in physics. Her teaching philosophy emphasizes activating problem-solving exercises and has contributed to educational literature on physics education. Laboratory & Facilities: Her research is conducted at the Ångström Laboratory, one of Europe's most advanced materials research facilities, equipped with state-of-the-art deposition systems, magnetic characterization tools, and neutron/X-ray scattering capabilities.

Andrew V. Teplyakovمشاهده پروفایل

استاد

• Surface Science
• Interface Chemistry
• Atomic Layer Deposition
• +۴ مورد دیگر

Andrew V. Teplyakov is a Professor in the Department of Chemistry and Biochemistry at the University of Delaware's College of Arts & Sciences, where he leads research in surface and interface science with applications in semiconductor manufacturing and nanomaterials development. Education: B.S. in Chemistry, Moscow State University (1992) M.S. (1993) Ph.D. in Chemistry, Columbia University (1997) Postdoctoral Fellow, New York University (1997-1998) Professor Teplyakov's research bridges physical, organic, and inorganic chemistry to solve molecular-level problems in thin film growth, etching, and nanomaterial formation. His group employs vibrational spectroscopies, electron spectroscopies, mass spectrometry, and computational methods to study chemical transformations on semiconductors. Current projects focus on atomic layer deposition (ALD) and etching (ALE) for semiconductor applications, covalent attachment of nanoparticles, and defect engineering for solar cells, emphasizing atomic-scale precision. Analysis of his 2023-2025 publications reveals dominant themes in area-selective atomic layer processes for semiconductor manufacturing, with significant contributions to solar cell passivation and magnetic material engineering. His work consistently connects fundamental surface chemistry to industrial applications through molecular-level control. Professor Teplyakov directs the Teplyakov Research Group, which develops novel surface modification techniques and investigates covalent binding mechanisms for fullerenes and nanoparticles. The group maintains strong industry and national laboratory collaborations to advance atomic-scale manufacturing capabilities for next-generation electronic and energy devices.

• Nuclear Engineering
• Nuclear Physics
• Neutron Capture
• +۳ مورد دیگر

Nobuyuki Iwamoto is a Professor (non-tenure-track) at the Faculty of Science and Engineering , Graduate School of Advanced Science and Engineering , Waseda University. His work focuses on nuclear data evaluation, neutron capture reactions, and photonuclear studies, with significant contributions to JENDL-5 development and transmutation system design. Key affiliations: Waseda University (Faculty of Science and Engineering), J-PARC MLF (Materials and Life Science Experimental Facility) Education: PhD in Science from Tohoku University (2000) Research spans Nuclear Engineering , Neutron Physics , and Photonuclear Reactions , emphasizing experimental cross-section measurements and theoretical modeling. Recent projects include: High-accuracy $^{129}$I and $^{241}$Am neutron capture data Gamma-ray polarization studies in nuclear reactions IAEA Photonuclear Data Library contributions His 15 most recent articles (2017-2025) highlight advancements in neutron capture for nuclear waste transmutation, photonuclear data for heavy elements, and machine learning applications in nuclear data. Key trends include: Integration of experimental DDX (Double Differential Cross-section) data Improvements in resonance parameter analysis Development of JENDL/PD-2016 and JENDL-5 libraries Scientific recognition includes: 2025 Science and Technology Award (Development Division), MEXT 2024 Japan Atomic Energy Society Technical Prize Multiple Director's Awards from Japan Atomic Energy Agency Most Cited Article Award (2017) He contributes to international collaborations like OECD NEA WPEC and CIELO, advancing neutron cross-section evaluations for critical applications in nuclear energy and astrophysics.