جست‌وجوی استاد و پژوهشگر

Jose Ignacio Arroyoمشاهده پروفایل

پژوهشگر ارشد

• Systems Biology
• Theoretical Ecology
• Complex Systems
• +۵ مورد دیگر

Jose Ignacio Arroyo is a Research Fellow at the Santa Fe Institute (SFI), collaborating with Professors Chris Kempes and Geoffrey West on metabolic scaling theory to analyze biological complexity across scales from cellular systems to urban environments. His work integrates theoretical frameworks with computational modeling to address fundamental questions in biological organization. Arroyo's research centers on identifying emergent quantitative principles in biological systems through physical and complex systems perspectives. Key interests include theoretical ecology, molecular evolution, and microbial community dynamics, with emphasis on deriving mechanistic models from first-principles physics and chemistry. His approach focuses on statistical pattern recognition, hypothesis testing of biological theories, and developing predictive frameworks for real-world applications in conservation, restoration, and urban planning. Notable contributions include mechanistic models for temperature dependence in biological systems based on thermodynamic theory and chemical kinetics. His publication record demonstrates consistent integration of statistical mechanics with biological complexity, particularly in scaling law phenomena across hierarchical systems. Recent work bridges biophysical principles with ecosystem-level modeling, showing strong interdisciplinary connections between theoretical physics, evolutionary biology, and systems ecology. Arroyo actively mentors early-career researchers through the SFI Undergraduate Complexity Research (UCR) program and Complex Systems Summer School tutorials. Previously, he served five years as Professor of Practice in Biostatistics, teaching undergraduate courses in Evolution and Biostatistics while developing pedagogical approaches for quantitative biological sciences. At SFI, he operates within a collaborative research ecosystem focused on complex systems theory, contributing to projects that model biological organization from molecular to societal scales through computational simulations and theoretical synthesis.

Mark O'Sheaمشاهده پروفایل

استاد

• Herpetology
• Snake taxonomy
• Biogeography
• +۵ مورد دیگر

Prof. Mark O'Shea MBE is a distinguished Professor of Herpetology at the University of Wolverhampton's Faculty of Science and Engineering since 2018. With four decades of field experience across all continents except Antarctica, he specializes in the systematics and conservation of New Guinea and Wallacean snakes while maintaining active roles in snakebite research and taxonomic integrity advocacy . First author of 4 and co-author of 7 new snake species descriptions Member of WHO Snakebite Expert Roster Recipient of lifetime achievement awards (2021, 2023) Research Interests span snake taxonomy , venomous snake ecology , and conservation of island herpetofauna . His work combines museum specimen analysis with field surveys in biodiversity hotspots like Timor-Leste and Papua New Guinea. Recent publications focus on cryptic species complexes , taxonomic vandalism mitigation , and snakebite medical countermeasures . Scientific Contributions include: Describing new species: Indotyphlops diliensis (2023), Stegonotus aplini (2021) Resolving taxonomic controversies: Toxicocalamus loriae complex (2022), Boiga multomaculata revision (2023) Advancing imaging protocols for museum specimens (2018) Awards & Recognition : MBE for services to Higher Education and Snakebite Research (2020) Snakeman of the Year (2015) Millennium Award for Exploration (2000)

• Probability Theory
• Stochastic Processes
• Mathematical Physics
• +۳ مورد دیگر

Lisa Hartung is a Full Professor (W3) at Johannes Gutenberg University Mainz's Department of Mathematics since 2025, leading research in stochastic processes. She previously held Associate (2019-2025) and Assistant Professor (2019) positions at the same institution and served as a Courant Instructor at NYU's Courant Institute (2016-2018). Her educational background includes a PhD from Bonn University (2016) under Prof. Anton Bovier in Probability Theory. Key research interests span branching Brownian motion , Gaussian free fields , random energy models , and stochastic processes on evolving networks , with applications in statistical mechanics and mathematical physics. Her work frequently addresses extremal processes, phase transitions, and complex temperature phenomena. Analysis of her recent publications reveals dominant trends in log-correlated random fields, variable-speed branching processes, and hard-wall boundary conditions. Articles consistently explore asymptotic behavior, maximum processes, and structural properties of stochastic systems, with increasing interdisciplinary connections to computer science through data stream modeling. Scientific recognition includes: Förderpreis der Fachgruppe Stochastik (2018) Hartung secures substantial research funding as PI for multiple high-impact projects: the ANR-DFG grant Random Energy Models (2020), DFG's SPP 2265 Random Geometric Systems (2020), TRR146 Multiscale Simulation Methods (2020), and Carl-Zeiss project TOPML (2022). She also serves on the executive board of DMV Fachgruppe Stochastik (since 2023) and coordinates Jugend trainiert Mathematik for grades 8/9. Her research group participates in the DFG-funded network Stochastic Processes on Evolving Networks and collaborates internationally through workshops on interacting particle systems and stochastic population models.

Clotilde Cucinottaمشاهده پروفایل

پژوهشگر ارشد

• Computational Chemistry
• Theoretical Chemistry
• Surface Science
• +۵ مورد دیگر

Dr. Clotilde Cucinotta is an EPSRC Fellow in the Department of Chemistry at Imperial College London, where she has led independent research since 2018. Her work focuses on computational modeling of solid-liquid interfaces, electron transport phenomena, and energy conversion systems using advanced molecular dynamics and first-principles methods. Her educational background includes: Master's in Condensed Matter Physics, University of Messina (Italy) PhD from University of Modena and INFM-CNR-S3 excellence centre (Italy) Dr. Cucinotta's research integrates computational chemistry and materials science to investigate interfacial processes critical for energy technologies. She specializes in modeling electrified interfaces under operational conditions, with emphasis on platinum-water systems, 2D material reactivity, and electrochemical energy conversion. Her methodologies bridge quantum mechanical simulations with macroscopic electrochemical behavior, enabling predictive design of catalysts and energy storage materials. Current projects address CO 2 conversion, battery electrode interfaces, and corrosion mechanisms through atomistic simulations. Analysis of her 2021-2025 publications reveals consistent focus on solid-liquid electrochemical interfaces, particularly platinum-water systems under bias. Her work demonstrates methodological innovation in simulating potential-controlled interfaces while advancing fundamental understanding of capacitive response, wettability, and reaction mechanisms. Key thematic areas include electrocatalysis for sustainable fuels, nanoscale battery materials, and computational tools for realistic interface modeling. Scientific recognition includes: Prestigious EPSRC Fellowship supporting her independent research program Funded by her EPSRC Fellowship, Dr. Cucinotta leads a computational research group developing novel simulation frameworks for electrochemical interfaces. She mentors early-career researchers in computational chemistry and maintains collaborations with experimental groups at Trinity College Dublin and ETH Zurich. Her grant portfolio centers on fundamental interface science with applications in energy conversion and storage. Her research is conducted within Imperial College London's Department of Chemistry, utilizing high-performance computing infrastructure for large-scale molecular dynamics and quantum simulations. The computational laboratory focuses on developing open-boundary methods for realistic electrochemical interface modeling under operational conditions.

Axel Endersمشاهده پروفایل

استاد مدعو

• Self-assembly of nanostructures
• Nanomagnetism
• Scanning Tunneling Microscopy
• +۳ مورد دیگر

Axel Enders is an Adjunct Professor at the Department of Physics and Astronomy , University of Nebraska-Lincoln . His research focuses on self-assembly of nanostructures , nanomagnetism , and advanced scanning tunneling microscopy and X-ray circular dichroism techniques. Research Themes Self-assembly of dipolar molecules on metal surfaces Magnetic properties of nanoscale clusters and films Surface state engineering for molecular interactions Multiferroic nanoscale templates Key Collaborations Regular partnerships with Jan Honolka , Ralph Skomski , and Peter A. Dowben across multiple institutions Interdisciplinary work with Alexander Sinitskii (materials synthesis) and Klaus Kern (nanoscience) Technical Expertise Specializes in scanning tunneling microscopy for surface analysis Utilizes X-ray circular dichroism for magnetic characterization Develops buffer-layer assisted growth methods for nanoclusters

Martina Kaledinمشاهده پروفایل

استاد

• Computational Chemistry
• Physical Chemistry
• Molecular Dynamics
• +۳ مورد دیگر

Martina Kaledin is a Professor in the Department of Chemistry & Biochemistry at Kennesaw State University, Georgia. Her research focuses on computational chemistry methods for molecular structure and dynamics, particularly in protonated clusters and atmospheric chemistry systems. She teaches undergraduate and graduate courses including General Chemistry, Physical Chemistry, and Directed Applied Research. Her research program develops molecular dynamics techniques using MP2 and DFT methods to analyze vibrational spectra, with recent work on permutationally invariant polynomial approaches for potential energy surfaces. Current projects aim to enhance computational efficiency through analytical potential energy surfaces while maintaining accuracy. Key trends in her 15 most recent publications (2012–2025) include: quantum Monte Carlo methods, polarizability-driven simulations, polynomial fitting techniques, and studies of carbon/nitrogen hydrides. She collaborates with Joel Bowman and Anatoly Kaledin, and has supervised numerous student researchers. Scientific Awards DAAD fellow (1999) Emerson Center Visiting Fellow (2000) Her advising program integrates undergraduate and graduate students into computational research projects, providing training in quantum methods, simulation tools, and spectral analysis. She has contributed to software development for molecular dynamics and polarizability calculations.

Adib Saminمشاهده پروفایل

دانشیار

• Materials Science
• Computational Materials Modeling
• Radiation Effects on Materials
• +۳ مورد دیگر

Dr. Adib Samin is an Associate Professor of Nuclear Engineering at the Air Force Institute of Technology (AFIT), specializing in computational materials science and radiation effects on materials. His research focuses on understanding the behavior of alloys under extreme conditions through atomistic simulations and first-principles calculations. He holds a PhD in Mechanical Engineering (The Ohio State University, 2014), an MS in Chemical Physics (2012), and a BS in Chemistry (Wayne State University, 2008). His research interests include materials degradation mechanisms, corrosion science, and the development of advanced alloy systems for nuclear and aerospace applications. He employs density functional theory (DFT), molecular dynamics, and machine learning techniques to study dislocation dynamics, oxygen adsorption, and radiation-induced defects in materials like tungsten, niobium-titanium alloys, and high-entropy alloys. Dr. Samin’s work has been published in journals such as Journal of Applied Physics , Corrosion Science , and ACS Langmuir , with a focus on oxidation thermodynamics, interstitial diffusion, and surface reactivity. He advises graduate students (e.g., L.A. Heaton, T.D. Doležal) on topics like alloy design and corrosion mechanisms. His contributions span interdisciplinary collaborations, addressing challenges in nuclear reactor materials, radiation-resistant magnets, and corrosion mitigation in extreme environments.

• Theoretical Chemistry
• Computational Physics
• Photochemistry
• +۴ مورد دیگر

Dmitri Kilin is an Associate Professor at the College of Science and Mathematics , North Dakota State University , affiliated with the Department of Chemistry and Biochemistry. His research focuses on developing computational methodologies for laser-driven chemical reactions and light-induced processes in nanostructures. PhD : Chemnitz University of Technology, Germany Postdoctoral Training : University of Oregon, University of Washington, University of Florida Research Interests include: First-principles molecular dynamics for electron-nuclear-light coupling Photofragmentation of metal-organic compounds Photopolymerization and photografting Charge transfer dynamics in nanomaterials Energy conversion via solar-to-chemical processes Scientific Recognition NSF CAREER Award recipient Research highlighted in chemistry journals Affiliations & Contributions : Develops computational tools for photoexcited processes, collaborates on modeling charge transfer efficiency in nanostructures, and contributes to sustainable energy material design. Teaches CHEM 364: Physical Chemistry I and CHEM 476/676: Introduction to Computational Quantum Chemistry .

Bilin Zhuangمشاهده پروفایل

استادیار

• Soft-Matter Chemical Physics
• Statistical Thermodynamics
• Theoretical Chemistry
• +۷ مورد دیگر

Bilin Zhuang is an Assistant Professor of Chemistry at Harvey Mudd College, where he leads the Soft-Matter Chemical Physics research group. His work bridges theoretical and computational chemistry with applications in soft-matter systems, liquids, and complex solutions. He teaches physical and computational chemistry with an innovative, inclusive approach that includes simulations, role-playing, and even cooking to make abstract concepts tangible. Research Interests: Dr. Zhuang's research centers on understanding molecular organization in liquids using statistical thermodynamics and field theories. His group investigates the 'weirdness' of water, polyelectrolyte brush behavior, liquid-liquid phase separation, and polar fluid correlations. The work is highly interdisciplinary, involving collaborations with students from chemistry, physics, computer science, and beyond. The recent publication trends reflect a strong focus on theoretical modeling of soft-matter systems, with recurring themes in liquid structure, ion effects, phase behavior, and interfacial phenomena. His work combines first-principles theory with computational simulations to explain and predict complex molecular behaviors in solutions and confined environments. Scientific Awards: No formal awards mentioned in the provided text. Advising and Grants: Dr. Zhuang actively advises undergraduate researchers, with several student theses and co-authored publications involving students. His research has been supported by collaborative projects, particularly with Z.-G. Wang and experimental colleagues, though specific grant details are not listed. He fosters a diverse research environment, welcoming students from various academic backgrounds. Labs and Teams: He leads the Soft-Matter Chemical Physics group at Harvey Mudd College, a student-centered research team focused on theoretical and computational projects. The group emphasizes interdisciplinary collaboration and the development of new analytical and simulation tools for understanding complex liquids.

Paul Daltonمشاهده پروفایل

دانشیار

• Biofabrication
• Biomaterials
• 3D Printing
• +۳ مورد دیگر

Paul Dalton is an Associate Professor at the University of Oregon's Knight Campus, holding the Bradshaw and Holzapfel Research Professor chair in Transformational Science and Mathematics. With a materials science background, he has pioneered melt electrowriting (MEW) technology for biomedical applications over 25 years across Australia, Canada, Germany, and the USA. Education: PhD from Curtin University (Perth, Australia) Key Positions: First Biofabrication Professor in Germany; Knight Campus faculty since 2011 His research integrates advanced manufacturing principles with biomaterials to create clinical solutions. The Dalton Lab's open-source MEWron platform has democratized access to high-resolution 3D bioprinting, enabling applications in nerve regeneration , artificial blood vessels , and skin tissue engineering . The technology has been adopted by over 25 European labs and 5 commercial bioprinter manufacturers. Selected publications in journals like Advanced Materials , Nature Materials , and Biomaterials demonstrate his work's impact. His lab actively trains students and researchers while collaborating with international institutions and industry partners. Scientific Awards: Bradshaw and Holzapfel Research Professorship Advising: Mentors PhD candidates, postdocs, and visiting scholars in biofabrication and biomaterials research

• Nanotechnology
• Scanning Tunneling Microscopy
• Surface Science
• +۷ مورد دیگر

Borislav Naydenov is a Research Fellow at Trinity College Dublin, affiliated with the School of Chemistry and the Centre for Research on Adaptive Nanostructures and Nanodevices (CRANN). His work bridges physics and chemistry at the nanoscale, focusing on surface phenomena and quantum electronic structures. His research interests lie at the intersection of nanotechnology, surface science, and quantum device engineering . He specializes in scanning tunneling microscopy (STM) and scanning tunneling spectroscopy (STS) , using these tools to investigate molecular self-assembly, dangling bond nanostructures, and single-atom quantum interference effects. His studies often explore how atomic-scale configurations influence electronic behavior, contributing to the development of future nanoelectronic devices. The analysis of his 15 most recent publications reveals a consistent focus on atomic-scale surface characterization and electronic structure manipulation . His work spans from fundamental studies of molecular adsorption and adatom interactions to applied research in single-molecule contact formation and quantum transport. Key themes include the engineering of nanowires from surface dangling bonds , molecular network self-assembly , and coherent quantum interference at the single-atom level . These contributions are primarily published in high-impact journals such as Physical Review Letters , Nano Letters , and Physical Review B . Scientific awards: No scientific awards listed in the provided text. Borislav Naydenov has been actively involved in significant research projects, particularly in collaboration with Prof. John J. Boland, leading to numerous publications in top-tier journals. His work has contributed to advancing the understanding of single-molecule electronics and atomic-scale device fabrication . While no formal students or grant details are mentioned, his long-standing postdoctoral and research fellow roles suggest substantial mentorship and project leadership within the CRANN research environment. He is associated with advanced research infrastructure at CRANN, a leading center for nanoscience in Ireland. His research leverages state-of-the-art ultra-high vacuum STM systems and spectroscopic techniques, enabling atomic-level manipulation and measurement. This environment supports interdisciplinary work combining physics, chemistry, and materials science to push the boundaries of nanoscale science.

Eva Raulsمشاهده پروفایل

استاد

• Computational Materials Science
• Surface Physics
• Theoretical Physics
• +۷ مورد دیگر

Eva Rauls is a Professor of Materials Physics in the Department of Mathematics and Physics at the University of Stavanger, under the Faculty of Science and Technology. Her research focuses on computational investigations of molecular adsorbates, catalytic properties, and electronic behavior of molecules on surfaces such as metals and graphitic materials. Her research interests include computational materials science, surface physics, supramolecular materials, and applications in CO2 capture and gas separation. She employs first-principles and semi-empirical methods, particularly density functional theory (DFT), to model and predict the behavior of functional materials. Current projects involve the design of supramolecular materials and optimization of metal-organic frameworks (MOFs) for environmental applications. The recent publication trends highlight a strong focus on pillararenes for CO2 adsorption, with detailed DFT studies analyzing functional group effects, cavity size, and molecular interactions. These works span chemistry, materials science, and environmental engineering, demonstrating interdisciplinary impact. Scientific awards include: Feodor-Lynen Fellowship of the Alexander-von-Humboldt-Society (2004–2006) Eva Rauls advises students such as Ho Quoc Duy and collaborates closely with the chemistry department and researchers like Uwe Gerstmann and Christoph Tegenkamp. Her work is supported by active research projects in functional material design for sustainable technologies. She regularly presents at international conferences including ECOSS, VCTP, and European Graphene Forum. She leads research efforts in atomistic modeling and computational studies of 2D heterostructures and molecular systems, indicating an active research group focused on theoretical and computational materials physics.

E. Charles Sykesمشاهده پروفایل

استاد

• Physical Chemistry
• Surface Science
• Nanoscience
• +۳ مورد دیگر

E. Charles Sykes is a Professor of Chemistry and Chemical and Biological Engineering at Tufts University, holding the John Wade Professorship. He leads the Sykes Lab, which focuses on surface science, nanoscience, and catalysis using advanced scanning probe techniques such as STM and LT-STM. His research explores molecular motors, single-atom alloy catalysts, chiral surface chemistry, and radiation-enhanced materials. Education: PhD (2002) in Chemistry from the University of Cambridge and BS/MS (1998) in Chemistry from the University of Oxford. His work bridges fundamental surface science with applications in energy and biomedical technologies. Research interests include designing cost-effective catalysts at the single-atom limit, studying molecular rotation dynamics, and developing chiral surfaces for enantiospecific reactions. His team has pioneered studies on atomic-scale alloy catalysts and demonstrated the world's first single-molecule electric motor. Key achievements include ACS Catalysis Lectureship Awards and Fellowships in the Royal Society of Chemistry and AVS. The lab actively collaborates with industry and academic institutions, supported by grants from NSF, NIH, and DOE. Labs/Teams: Sykes Lab at Tufts University, focusing on advanced microscopy and surface chemistry. Current projects include radiation-activated nanomaterials and curved crystal surface chemistry.

• Computational Chemistry
• Molecular Simulations
• Metal-Organic Frameworks
• +۵ مورد دیگر

Louis Vanduyfhuys is an Associate Professor at Ghent University, with his research primarily focused on the investigation of mechanical, thermal, and adsorption properties of metal-organic frameworks (MOFs) for applications such as nano-mechanical devices, energy storage, and selective gas adsorption and separation. His work integrates computational chemistry, molecular simulations, and thermodynamics to develop advanced materials with tailored properties. His research spans multiple areas including force field development (with the creation of QuickFF software), advanced molecular simulations (MD, MC, cDFT), and thermodynamic modeling. He has made significant contributions to understanding the behavior of flexible porous materials, particularly MOFs, which exhibit unique phenomena such as negative thermal expansion, negative linear compression, and negative gas adsorption. His work bridges fundamental molecular insights with practical applications in gas separation, sensing, and energy storage. The publication record shows a strong emphasis on computational approaches to characterize the thermodynamic properties of nanoporous materials. His recent work increasingly incorporates machine learning techniques to enhance simulation accuracy while maintaining computational efficiency. The research demonstrates a consistent progression from fundamental force field development to practical applications of MOFs in gas storage and separation technologies. As an educator, Vanduyfhuys teaches courses including Modelling and Engineering of Nanoscale Materials, Quantum Mechanics I, Thermodynamics and Statistical Physics, and Statistical Physics at Ghent University. His teaching reflects his research expertise in computational methods and thermodynamics applied to nanoscale systems. His research group appears to focus on developing computational tools (QuickFF and ThermoLIB) for molecular simulations of porous materials, with strong collaborations across European institutions. The work demonstrates a systematic approach from force field derivation to thermodynamic analysis, providing a comprehensive framework for computational materials design.

Tom Braeckeveltمشاهده پروفایل

پژوهشگر ارشد

• Materials Science
• Perovskite Solar Cells
• Computational Chemistry
• +۳ مورد دیگر

Tom Braeckevelt is a Research Fellow at Ghent University, Belgium, working within the computational materials science group led by Prof. Veronique Van Speybroeck. Based at Tech Lane Ghent Science Park (Technologiepark 46, Zwijnaarde), he collaborates extensively with experimental teams including Prof. Johan Hofkens (photophysics) and Prof. Sara Bals (electron microscopy), bridging theoretical modeling with advanced characterization techniques to solve stability challenges in next-generation photovoltaics. Education: PhD in Materials Science, Ghent University (2018). Dissertation: Designing 2D hybrid organic-inorganic perovskites for game-changing photovoltaics , supervised by Prof. Veronique Van Speybroeck and Dr. Kurt Lejaeghere. His research centers on perovskite stability mechanisms through multiscale computational modeling (DFT, machine learning potentials, molecular dynamics) integrated with experimental validation (TEM, GIWAXS, spectroscopy). Key focus areas include phase transition kinetics, strain engineering, doping strategies, and interfacial design for cesium lead halide perovskites. This work addresses critical barriers to commercial solar cell deployment, particularly ambient-condition stability and efficiency retention. From 2019-2025, Dr. Braeckevelt co-authored 13 high-impact publications including Science (2019), Nature Communications (2022), and ACS Nano (2025), demonstrating progression from fundamental phase transition studies to machine learning-enhanced stability solutions. Recent work expands into covalent organic frameworks and rare-event sampling algorithms, reflecting methodological diversification while maintaining photovoltaic applications as the core driver. No scientific awards or fellowships were documented in the source materials. Supported by institutional research grants at Ghent University, Dr. Braeckevelt has presented findings at 8+ international conferences including PSCO19 (Lausanne), ICAMM (Rennes), and DFT2022 (Brussels). His invited talk at the 2025 Eindhoven Psiflow workshop highlights growing recognition in machine learning for perovskites. No student supervision roles were indicated in current position. He operates within Ghent's integrated materials research ecosystem, contributing to cross-disciplinary projects that combine computational prediction with nanoscale characterization to accelerate renewable energy technology development.