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Orçun Koray ÇelebiView profile

Assistant Professor

• Materials Science
• Computational Mechanics
• Quantum Mechanics Simulations
• +4 more

Dr. Orçun Koray Çelebi is an Assistant Professor in the Department of Mechanical Engineering at Bilkent University, Ankara. He leads the Atomistic Mechanics & Materials Modeling Laboratory (A3ML), which focuses on computational and theoretical modeling of metallic materials' deformation mechanics using quantum mechanics-based methods, molecular dynamics, and machine learning. His academic journey includes a B.S. from Boğaziçi University (2018) and a Ph.D. from the University of Illinois Urbana-Champaign (2024), followed by a postdoctoral position there before joining Bilkent. Research interests center on multiscale modeling of plastic deformation in metals, alloys, and high-entropy alloys, with a focus on crystal defects (point, line, interface defects) and their role in material behavior. Techniques employed include Density Functional Theory, Molecular Dynamics, and machine learning approaches. His work aims to develop predictive models for high-performance material design. Recent publications emphasize dislocation dynamics, CRSS prediction, and machine learning applications in materials science. He actively contributes to academic networks like CPERN but has no listed scientific awards. The A3ML lab collaborates on projects across scales, integrating quantum-to-mesoscale modeling for practical material solutions in aerospace, automotive, and defense sectors.

John V WintersView profile

Professor

• Labor Economics
• Regional Economics
• Education Policy
• +2 more

John V. Winters is Professor of Economics at Iowa State University, serving as Graduate Placement Officer and Research Fellow at both the Institute of Labor Economics (IZA) and Global Labor Organization (GLO). His research examines labor market dynamics across geographic regions. His expertise spans regional wage differentials, college graduate migration, education policy impacts, teacher labor markets, self-employment outcomes, and human capital effects on regional economies. Current investigations include fracking boom impacts, STEM labor markets, and pandemic employment effects. Publications demonstrate consistent focus on regional disparities in employment, migration patterns, and education outcomes. Recent work examines COVID-19 impacts across geographic areas, energy boom effects on local labor, and minimum wage policy variations. No scientific awards are mentioned. As Graduate Placement Officer, he oversees student career outcomes. His research receives funding for projects on immigrant self-employment, regional economic shocks, and education policy evaluation. He leads research initiatives on regional economic disparities through IZA and GLO collaborations, contributing to policy discussions on workforce development and regional competitiveness.

• Semiconductor Materials Engineering
• Quantum Structures
• Heteroepitaxial Films
• +7 more

Dr. Sang M. Han is a Regents' Professor in the Departments of Chemical & Biological Engineering and Electrical & Computer Engineering at the University of New Mexico (UNM). He holds a PhD from UC Santa Barbara and a BS (with honors) from UC Berkeley. His research focuses on semiconductor materials engineering, nanofluidic systems, and photovoltaic integration, with over 50 peer-reviewed publications and 10 patents. Education : PhD, Chemical Engineering, UC Santa Barbara BS, Chemical Engineering with Honors, UC Berkeley Research Interests : Dr. Han’s work spans: Selective growth of Ge quantum structures on Si III-V integration on engineered Ge/Si virtual substrates Hybrid micro/nanofluidic systems for bioseparation Semiconductor surface modification Nanocrystal synthesis for optical/biological applications Publications & Patents : Over 50 journal articles and 10 UNM-affiliated patents, with recent work on carbon-nanotube-reinforced composites and bioinspired optical materials. Awards : NSF Career Award (2001) UNM Junior Faculty Research Excellence Award (2005) UNM Senior Teaching Excellence Award (2012) Multple UNM Creative Awards (2009-2014) Advising & Labs : Leads research groups focused on semiconductor heteroepitaxy and nanofluidic systems. Active in developing crack-tolerant photovoltaic gridlines and biomimetic optical coatings.

Arda GencView profile

Researcher

• Materials Science
• Nanotechnology
• Electron Microscopy
• +3 more

Dr. Arda Genc is the Microscopy and Microanalysis Facility Supervisor at the University of California, Santa Barbara (UCSB), affiliated with the Department of Materials within the College of Engineering. His research focuses on advanced microscopy techniques, nanomaterials characterization, and energy storage materials. He holds a Researcher academic rank and has contributed extensively to the fields of materials science and nanotechnology through his work on electron microscopy, machine learning applications in materials analysis, and catalytic systems. Key research interests include high-throughput analysis of nanomaterials using AI-driven methods, defect engineering in alloys, and thin film characterization. His work bridges computational approaches with experimental microscopy, addressing challenges in energy storage and catalytic efficiency. Dr. Genc’s articles highlight advancements in 4D STEM analysis, superconducting thin films, and battery material degradation mechanisms. His studies often integrate machine learning with electron microscopy to enhance material characterization speed and accuracy. He has collaborated on projects involving semiconductor defect dynamics, CO2 hydrogenation catalysts, and silicon anode degradation in lithium-ion batteries. As facility supervisor, he oversees cutting-edge microscopy resources supporting UCSB’s research community. His contributions span over 50 peer-reviewed publications, emphasizing interdisciplinary approaches to materials innovation.

• Materials Physics
• Computational Physics
• Radiation Damage
• +3 more

Jesper Byggmästar is an Academy Postdoctoral Researcher at the University of Helsinki, affiliated with the Department of Physics under the Faculty of Science. His research focuses on computational materials physics, particularly radiation damage mechanisms, interatomic potential development, and the behavior of advanced materials in extreme environments. His work spans topics such as machine learning-driven simulations of materials like tungsten, gallium oxide, and high-entropy alloys, with applications in nuclear fusion and aerospace engineering. Key contributions include studies on radiation resistance, defect evolution, and interatomic potential optimization for metallic systems. Byggmästar leads the OCRAMLIP project (2023–2027), which explores refractory alloys using machine learning, and participates in the Finnish Center for Artificial Intelligence (FCAI) flagship program. His research emphasizes bridging atomic-scale simulations with macroscopic material behavior, addressing challenges in fusion reactor materials and structural integrity under irradiation.

• Material Science
• Alloy Design
• Corrosion Mechanisms
• +3 more

Dr. Yuxiang Wu is a Researcher at the Max Planck Institute for Sustainable Materials, Department of Microstructure Physics and Alloy Design. His research focuses on advanced alloy design, corrosion mechanisms, and material science applications, including artificial intelligence-driven material discovery. He investigates high-performance alloys, corrosion resistance in aluminum and steel systems, and microstructural optimization for enhanced mechanical properties. Key research areas include mechanism-based alloy design, hydrogen embrittlement in alloys, and sustainable material recycling strategies. His work integrates experimental techniques like in-situ TEM/XRD with computational modeling to understand material behavior at atomic and macroscopic scales. Dr. Wu’s publications highlight innovations in advanced high-strength steels, corrosion-resistant alloys, and additive manufacturing composites. His research contributes to both fundamental metallurgical understanding and industrial applications in automotive, aerospace, and infrastructure sectors. He is affiliated with the 'Mechanism-based Alloy Design' research group at the Max Planck Institute, and his work is accessible via Google Scholar, ResearchGate, and ORCID profiles. His lab focuses on bridging computational predictions with experimental validation for next-generation materials.

• Tribology
• Nanotribology
• Multiscale Modeling
• +8 more

P.Dr. Steffen Brinckmann is affiliated with Forschungszentrum Jülich GmbH, leading research in structure and nanomechanics of materials. Formerly, he held roles as Group Leader at Max-Planck Institut für Eisenforschung and Junior Group Leader at Ruhr University Bochum's ICAMS. His career includes postdoctoral research at Caltech and Purdue University. He specializes in experimental and numerical studies of metal degradation, focusing on nanotribology, multiscale modeling (dislocation/molecular dynamics), and fracture mechanics. Education: PhD in numerical solid mechanics from University of Groningen (2005), with prior studies at TU Hanover and TU Delft. Extensive postdoctoral training in the US (Purdue, Caltech). Research interests span tribology-induced microstructure evolution, concurrent multiscale modeling, micromechanical experiments, and fatigue simulations. Expertise includes advanced data processing (Python/Matlab) and FEM/multiscale numerical methods. His interdisciplinary work extends to plasma disinfection (biology) and urban economics studies. Key projects include the Sandia Fracture Challenge (blind simulation success), AtoDis multiscale model development, and powder compaction studies using micro-CT. Active in international collaborations (e.g., Sandia National Labs, Boise State University).

• Metal Degradation
• Nanotribology
• Fracture Mechanics
• +7 more

Dr. Steffen Brinckmann is a researcher in materials science, specializing in metal degradation, nanotribology, and fracture mechanics. He holds a PhD from the University of Delft and the University of Groningen, Netherlands, and completed postdoctoral research at Purdue University and the California Institute of Technology. His work bridges experimental and numerical methods, focusing on multiscale modeling (e.g., the AtoDis model), micrometer-scale deformation studies, and powder compaction. He collaborates internationally with institutions like Sandia National Labs and Boise State University. Education: PhD in Mechanical Engineering/Applied Physics (Delft/Groningen), postdoctoral studies at Purdue University (Mechanical Engineering) and Caltech (Materials Science). Research interests include tribology-induced wear mechanisms, fracture mechanics at micro/nanoscales, and interdisciplinary projects in plasma disinfection (biology) and urban economics. His numerical expertise spans Finite Element Methods, Discrete Dislocation Dynamics, and Python-based data analysis. He has led the Sandia Fracture Challenge project, outperforming international teams in macroscopic fracture prediction. Labs/teams: Department of Structure and Nano-/Micromechanics at Max Planck Institute, Materials Science Department at Ruhr-University Bochum (RUB).

• Computational Materials Design
• Microstructure Physics
• Alloy Design
• +3 more

Dr. Baptiste Bienvenu is a Researcher at the Max Planck Institute for Sustainable Materials, affiliated with the Computational Materials Design department. His work focuses on the intersection of materials science, solid-state physics, and computational modeling, particularly in understanding deformation mechanisms in body-centered cubic (BCC) metals like chromium and iron. He investigates magnetic effects on mechanical behavior, interfacial phenomena in materials, and sustainable synthesis methods for advanced alloys. Research interests include: Dislocation dynamics and plasticity modeling in BCC metals Magnetism-mechanics coupling in transition metals Ab initio simulations for phase stability and electronic structure Interface engineering in 2D heterostructures Oxidation mechanisms and corrosion science His recent publications (2020–2025) emphasize atomic-scale modeling of slip systems, magnetic excitations influencing yield strength, and the electronic properties of layered materials. Research highlights include developing novel computational potentials for iron oxides and uncovering anomalous plasticity behaviors in BCC alloys. No scientific awards or grants are explicitly listed in the profile. He is based at the Institute's Düsseldorf campus, collaborating with groups in microstructure physics and sustainable materials synthesis.

Courtney Stafford-WalterView profile

Teaching Professor

• Indigenous Education
• Anthropology of Education
• Qualitative Methodologies
• +3 more

Dr Courtney Stafford-Walter is a Teaching Professor at the Moray House School of Education and Sport, University of Edinburgh, affiliated with the Institute for Education, Community & Society (IECS). She holds a PhD in Social Anthropology from the University of St Andrews (2015) and a BA in Cultural Anthropology from the University of Virginia (2009). Her research focuses on the intersection of education, development, and social change, particularly through ethnographically grounded studies of indigenous communities in Guyana and Latin America. Education: PhD (Social Anthropology, St Andrews), BA (Cultural Anthropology, Virginia) Her research explores how ethnographic methods interrogate Western-centric development discourses and examine the impacts of schooling on indigenous youth, including themes like spirit possession, cultural dislocation, and power hierarchies. She co-founded the Center for Research and Collaboration of the Indigenous Americas (CRACIA) at the University of Maryland and is a member of the Centre for Amerindian, Caribbean, and Latin American Studies (CAS) at St Andrews. She teaches courses on comparative education, qualitative methods, and the anthropology of education. Her recent work includes studies on climate change’s impact on indigenous education systems and intergenerational knowledge transmission in Guyana. Courtney actively participates in international conferences, organizing workshops on field research ethics and qualitative writing. Advising focuses on decolonizing methodologies, indigenous knowledge systems, and ethnographic research practices. She collaborates with interdisciplinary teams to address education’s role in sustainable development goals (SDGs).

Mark BradleyView profile

Professor

• Nanotechnology
• Surface Physics
• Ion Bombardment
• +3 more

Mark Bradley is a Professor in the Department of Physics at Colorado State University (CSU), part of the College of Natural Sciences. He holds a B.S. from the University of Toronto (1979) and a Ph.D. from Stanford University (1985). His research focuses on the theory of nanoscale pattern formation induced by ion bombardment of solid surfaces, including ripple dynamics, nanodot arrays, and sputter cone formation. Bradley collaborates closely with experimentalists, using computational modeling and simulations to study surface instabilities and compositional effects. His work has led to groundbreaking theories such as the Bradley-Harper model for ripple formation and the explanation of hexagonal nanodot arrays via surface composition coupling. Recent projects include NSF-funded studies on multilayer blazed gratings and nanopatterning of crystalline Ge surfaces. Bradley has advised numerous graduate and undergraduate students, many of whom have pursued advanced degrees at top institutions like UC Davis and Caltech. Bradley’s research also explores sputter yield dynamics, ion-solid interactions, and the mathematical theory of pattern formation in nonequilibrium systems. His group’s findings have been featured in prominent journals like Physical Review Letters and Journal of Applied Physics , with over 1,100 citations for his seminal 1988 paper on ripple topography. He has delivered plenary talks at international conferences and served as an editor for Nanophysics in Open Physics . Labs/Teams: Bradley leads the Bradley Group at CSU, a multidisciplinary team combining theoretical physics, computational modeling, and experimental collaboration. Key ongoing projects include optimizing nanopattern quality via ion beam rocking and investigating morphological transitions in binary compounds.

Paolo Maria MarianoView profile

Associate Professor

• Continuum Mechanics
• Thermodynamics
• Computational Mechanics
• +6 more

Prof. Paolo Maria Mariano is an Associate Professor of Mechanics of Solids at the University of Florence and holds adjunct positions at the Scuola Normale Superiore (Pisa) and Gonzaga University (Florence). He earned his PhD in 1997 from Sapienza University of Rome and a Laurea in Structural Engineering. His research focuses on continuum mechanics, thermodynamics, computational methods, and statistical mechanics of complex materials, with applications to quasicrystals, polymeric fluids, and fracture mechanics. He has authored over 80 journal papers and edited several books. His work includes studies on material mutations, microstructural dynamics, and variational integrators. Education: PhD (1997, Sapienza University Rome), Laurea in Structural Engineering (Sapienza), High School in Humanities. Research Interests: Mechanics and thermodynamics of continua, computational methods (e.g., XFEM, variational integrators), statistical mechanics of substructural stochasticity. Key areas include quasicrystals, ferroelectrics, plasticity, and fracture mechanics. Publications Trends: Recent work emphasizes quasicrystal mechanics, phason dynamics, and multi-scale modeling. Notable contributions address spatial decay analysis, covariance in plasticity, and line defect evolution. Grants & Advising: Supervised 14 students, including Furio Lorenzo Stazi (ECCOMAS Prize winner). Editorial roles include Mathematical Methods in the Applied Sciences and Structural Engineering and Mechanics . Labs/Teams: Coordinator of the Theoretical Mechanics group at the De Giorgi Center, Pisa, and part of the Non-Linear Dynamics PhD program at the University of Florence.

Jeremy AllamView profile

Professor

• Ultrafast Optoelectronics
• Semiconductor Physics
• High-speed Photonic Technologies
• +3 more

Professor Jeremy Allam holds the Chair in Ultrafast Optoelectronics at the University of Surrey's Advanced Technology Institute (ATI), part of the School of Mathematics and Physics. His research focuses on ultrafast carrier dynamics in semiconductors, high-speed photonic measurement technologies, and nanocarbon-based systems. He leads the PHY3047 Photonics and Nanotechnology module and has pioneered a state-of-the-art ultrafast laser facility enabling sub-100 fs optical pulses across UV to mid-IR wavelengths. Education: BSc in Physics from the University of Oxford, PhD from the University of Surrey. Career: Postdoctoral research at AT&T Bell Laboratories and Hitachi Cambridge Laboratory before establishing his research group in 1990. Appointed to his current Chair in 2000. Research interests include exciton dynamics in carbon nanotubes, light trapping mechanisms in graphene multilayers, and photocatalytic systems involving porphyrin-nanocarbon complexes. Key findings include demonstrating resonance-enhanced luminescence in porphyrin-CNT agglomerates and ultra-broadband absorption in nanotextured graphene structures. Publications span over 50 peer-reviewed articles since 2003, with recent work addressing energy transfer kinetics in nanohybrid systems. His work integrates experimental physics with advanced measurement techniques, emphasizing applications in renewable energy and optoelectronics. Labs/Teams: Leads the Ultrafast Optoelectronics group at ATI. Collaborations include Hitachi Cambridge Laboratory, AT&T Bell Labs, and international academic partners in materials science and photonics.

Levente BaloghView profile

Assistant Professor

• Astroparticle Physics
• Nuclear Engineering
• Composite and Hybrid Materials
• +4 more

Levente Balogh is an Assistant Professor in the Department of Mechanical and Materials Engineering at Queen's University, affiliated with Smith Engineering. He holds a joint appointment at the Arthur B. McDonald Canadian Astroparticle Physics Institute. His research focuses on irradiation effects on structural materials, astroparticle physics (notably dark matter detection via the NEWS-G experiment), and advanced materials characterization. Balogh earned his Ph.D. in Physics from Eötvös Loránd University (2009), followed by postdoctoral work at Los Alamos National Laboratory and Queen’s University. Previously, he worked as a Research Scientist at Canadian Nuclear Laboratories before joining Queen’s faculty. His work spans three core areas: 1) radiation effects on nuclear materials (e.g., zirconium alloys), 2) astroparticle physics using novel detectors, and 3) additive manufacturing microstructure analysis. He has pioneered studies on hydride phase stability in zirconium alloys and developed methodologies for neutron scattering analysis in spherical proportional counters. Awards: [No explicitly stated scientific awards in provided texts]. Advising: Supervises graduate students in materials science and nuclear engineering topics. Research grants include collaborations on dark matter detection and materials for Gen-IV reactors. Active in the Arthur B. McDonald Institute's astroparticle initiatives. Labs/Teams: Leads the NEWS-G detector development team and collaborates with SNOLAB and Boulby Underground Laboratory. Engaged in additive manufacturing research groups at Queen’s.

Nasim AlemView profile

Associate Professor

• Materials Science
• Nanotechnology
• Condensed Matter Physics
• +7 more

Nasim Alem is an Associate Professor of Materials Science and Engineering at Pennsylvania State University, affiliated with the Norris B. McFarlane Faculty Career Development Program. His research focuses on advanced materials characterization, epitaxial growth of 2D and oxide materials, and understanding atomic-scale structure-property relationships. Key research areas include high-entropy oxides, quantum heterostructures, and ferroelectric materials. His work bridges nanotechnology with energy applications, leveraging advanced microscopy techniques like scanning transmission electron microscopy (S/TEM) and energy-dispersive X-ray spectroscopy (EDS) to study materials such as β-Ga₂O₃, MoS₂, and multiferroic compounds. Alem is an affiliate researcher in Integrated Energy Systems and has contributed to projects like the 'High Efficiency Sn(S,Se)₂/Crystalline Silicon Tandem Photovolatics.' Recent research highlights include discovering layered multiferroic materials with strong magnetoelectric coupling, developing high-entropy oxide thin films, and advancing growth techniques for semiconductors like InBi and β-(AlₓGa₁₋ₓ)₂O₃ alloys. His publications span journals like Science Advances , ACS Photonics , and Acta Materialia . Alem's articles from 2024-2025 emphasize quantum confinement effects, phase transformations in oxides, and electrocaloric phenomena in ferroelectric systems. His work often combines experimental and computational approaches to explore novel material functionalities for energy and electronics applications. His advising and grants include collaborations with researchers in materials science, physics, and engineering. No specific student names or lab teams are explicitly listed, but his research involves interdisciplinary teams at Penn State.