جست‌وجوی استاد و پژوهشگر

Andreas Almqvistمشاهده پروفایل

استاد

• Computational Tribology
• Machine Elements
• Contact Mechanics
• +۶ مورد دیگر

Andreas Almqvist is a Professor in Machine Elements at Luleå University of Technology (LTU), working within the Department of Engineering Sciences and Mathematics. He serves as the director and operations manager of the Center for Sports and Performance Technology (SPORTC) and is actively involved in research and teaching related to computational tribology. Almqvist has been affiliated with LTU since completing his Master's degree in 2001, progressing through academic ranks to his current professorship. Almqvist completed his Master of Science in Engineering at LTU in December 2001 and defended his PhD thesis in September 2006 titled 'On the Effects of Surface Roughness in Lubrication.' Following a 2-year postdoctoral position with Shell Global Solutions in England under the Marie Curie Transfer of Knowledge program (2007-2008), he returned to LTU in January 2009. He became Docent in November 2010, was appointed Associate Professor in January 2012, and was promoted to Professor in Machine Elements in May 2017. His research focuses on computational tribology, with particular emphasis on multiphysics and multiscale modeling and simulation of continuum mechanical problems in tribology and sports technology. His work spans contact mechanics, flows in thin gaps, and friction phenomena, with recent applications to skiing performance. Since fall 2021, he has been collaborating with the Swedish Olympic Committee's 'Olympisk Offensiv' research program alongside other prominent Swedish sports scientists. His research approach integrates applied mathematics with practical engineering challenges, often involving collaborations across departments including Fluid Mechanics, Mathematics, and Machine Learning. Analysis of Almqvist's recent publications reveals a strong trend toward applying tribological principles to winter sports performance, particularly skiing. His work bridges fundamental computational methods with practical applications, showing increasing interdisciplinary collaboration across engineering disciplines, sports science, and materials science. The research demonstrates both theoretical advances in modeling techniques and practical applications for performance enhancement in Olympic sports. ERC Grant Recipient Marie Curie Transfer of Knowledge Program Participant VR (Swedish Research Council) Grant Recipient for multiple projects including 'New Concepts in Thin Film Flow Modelling' (DNR 2014-4894) and 'Multiscale Topological Optimization for Lower Friction, Less Wear and Leakage' (DNR 2019-04293) Almqvist serves as Editor-in-Chief for 'The Proceedings of the IMechE Part J - Journal of Engineering Tribology' since 2019 and has been involved in numerous research projects funded by both academic and industrial partners. He has supervised student projects in collaboration with academic and industrial partners and has secured significant research funding from the Swedish Research Council. His educational leadership extends to serving as program director for the Engineering Physics and Electrical Engineering program at LTU. As director of the Center for Sports and Performance Technology (SPORTC), Almqvist leads the Ski and Snow Lab which focuses on physics at different scales related to friction in skiing. The center represents a strategic initiative at LTU to bridge engineering science with sports performance, creating a unique interdisciplinary research environment that brings together expertise from multiple departments including Machine Elements, Fluid Mechanics, and Mathematics.

Mohammad Malikanمشاهده پروفایل

استادیار

• nanocomposites
• functionally graded materials
• composite structures
• +۳۴ مورد دیگر

Mohammad Malikan is an Assistant Professor at the Department of Mechanics of Materials and Structures within the Faculty of Civil and Environmental Engineering at Gdańsk University of Technology. His research focuses on advanced composite materials and structural mechanics with applications in smart materials and micro/nano-scale structures. His primary research interests include: Nanocomposites and functionally graded materials Composite structures and laminated composites Mathematical modeling of mechanical systems Mechanics of materials with emphasis on elasticity and nonlinear behavior Smart materials including piezoelectric, flexoelectric, piezomagnetic and flexomagnetic properties Dr. Malikan's recent publications demonstrate a strong focus on three-dimensional modeling of smart composite structures, particularly examining electro-magneto-elastic coupling effects. His work bridges theoretical modeling with experimental validation, often employing advanced numerical techniques like finite element analysis. A significant portion of his research investigates novel applications of graphene-reinforced composites and their piezoelectric properties. His research has been supported by projects including "Nonlocal Models of Plates and Shells with Applications in Micro- and Nanomechanics" and a "Research internship at the University of Massachusetts Lowell to work on experimental tasks regarding functionally graded nano-composites" funded by MINIATURA.

Łukasz Żmuda-Trzebiatowskiمشاهده پروفایل

مدرس ارشد

• Buckling Analysis
• Structural Stability
• Non-linear Analysis
• +۴ مورد دیگر

Łukasz Żmuda-Trzebiatowski is a Senior Lecturer at the Department of Structural Mechanics within the Faculty of Civil and Environmental Engineering at Gdańsk University of Technology. His office is located in the Main Building (Gmach Główny), room 467 D1, and he can be contacted at luktrzeb@pg.edu.pl or +48 58 348 62 98. His research focuses on structural stability and buckling analysis, with particular expertise in thin-walled structures, silos, and pedestrian bridges. His work combines theoretical analysis with computational methods, primarily using finite element modeling to investigate structural behavior under various loading conditions. Analysis of his publication record reveals a consistent research trajectory in structural stability since 2013, with particular emphasis on the relationship between natural frequencies and buckling loads. His work often compares different analytical approaches (linear vs. non-linear, static vs. dynamic) and validates findings against normative procedures. Recent publications show increasing application of his research to educational tools for structural engineering students. His research methodology combines numerical simulations with experimental validation, particularly in the context of pedestrian bridge analysis. He frequently collaborates with P. Iwicki on structural stability problems.

Žiga Unukمشاهده پروفایل

دانشیار

• Structural Engineering
• Timber Structures
• Concrete Technology
• +۴ مورد دیگر

Assoc. Prof. Dr. Žiga Unuk is an Associate Professor at the University of Maribor's Faculty of Civil Engineering, Traffic Engineering and Architecture (FGPA), affiliated with the Department of Building Structures and Miroslav Premrov's Lab. His academic roles include membership in the FGPA International Cooperation Commission, facilitating global research partnerships. Education highlights: BSc in Civil Engineering (2011) and MSc in Civil Engineering (2014) from University of Maribor, with exchanges at Graz University of Technology PhD in Civil Engineering focusing on reversible reinforcement techniques for historic timber structures Research expertise spans structural engineering innovations, particularly: Hybrid material systems (timber-glass composites, fiber-reinforced concrete) Non-invasive strengthening methods for building conservation Development of patented structural connections for sustainable construction Current projects include ARIS-funded research on hybrid steel-concrete joints for lattice structures. His 11 publications since 2018 predominantly explore fiber-reinforced concrete behavior, timber-glass composites, and computational modeling of structural elements, with recent work emphasizing experimental validation of hybrid systems. Grants and lab involvement: Leading ARIS-funded postdoctoral project (2022-present) Active researcher in Miroslav Premrov's Lab, focusing on composite material applications

• Atomic Physics
• Ion Collision Dynamics
• Electron-Impact Ionization
• +۱ مورد دیگر

Borovik A. is a researcher at GSI Helmholtzzentrum für Schwerionenforschung, focusing on experimental and theoretical atomic physics. Their work centers on electron-impact ionization dynamics of highly charged ions (e.g., Xe, W ions), quantum electrodynamics in strong fields, and precision cross-section measurements. Borovik collaborates extensively with teams at GSI facilities like CRYRING@ESR and contributes to international conferences in atomic collisions. Research Interests: Ionization mechanisms in heavy elements, atomic collision theory, quantum electrodynamics validation, and spectroscopic analysis of highly charged ions. Key Publications: Recent work includes studies on tungsten ion ionization cross-sections (2020), argon core-hole dynamics (2021), and open-4d-shell xenon ionization (2024), demonstrating consistent focus on precision atomic measurements.

• Nuclear Physics
• Heavy Ion Research
• Superheavy Elements
• +۳ مورد دیگر

V. F. Comas is a nuclear physics researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany. As part of this leading heavy ion research facility, Comas contributes to cutting-edge research in nuclear physics with a focus on exotic nuclei and superheavy elements. Comas's research interests center on nuclear structure studies of rare isotopes, particularly neutron-deficient and neutron-rich species. Their work spans multiple subfields including heavy-ion induced reactions, decay spectroscopy of exotic nuclei, superheavy element synthesis, and nuclear reaction mechanisms. This research often involves the use of specialized facilities like the SHIP (Separator for Heavy Ion reaction Products) separator for isolating and studying rare reaction products. Analysis of Comas's publication record shows consistent contributions to understanding the properties of nuclei far from stability, with particular emphasis on isotopes with high atomic numbers. Their work often involves international collaborations and contributes to expanding our knowledge of the nuclear landscape at its extremes. Comas has been active in publishing research on neutron-deficient isotopes, superheavy elements, and nuclear reaction mechanisms throughout the 2000s and 2010s, demonstrating sustained contributions to the field of experimental nuclear physics.

• Superheavy element synthesis
• Nuclear fission dynamics
• Decay properties of heavy isotopes
• +۳ مورد دیگر

Dr. Khuyagbaatar J. is a Research Fellow at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, specializing in superheavy element research within the Nuclear Physics Department's Superheavy Elements Research Group. His work focuses on the synthesis, decay properties, and chemical characterization of elements at the extreme limits of the periodic table. His research interests span superheavy element synthesis, nuclear fission dynamics, decay properties of heavy isotopes, shell effects in superheavy nuclei, relativistic effects in chemical properties, and the pursuit of elements 119 and 120. Dr. Khuyagbaatar is a key contributor to the TASCA (TransActinide Separator and Chemistry Apparatus) collaboration, which has enabled groundbreaking studies of transactinide elements. Analysis of his recent publications (2020-2025) reveals a strong emphasis on experimental nuclear physics with a focus on identifying new superheavy isotopes, measuring their decay properties, and investigating the chemical behavior of the heaviest elements. His work demonstrates consistent contributions to understanding shell stabilization effects in superheavy nuclei and the manifestation of relativistic effects in chemical properties. Dr. Khuyagbaatar's research has resulted in numerous high-impact publications in journals like Physical Review Letters and Physical Review C, with significant contributions to the discovery and characterization of new superheavy elements. His work represents the cutting edge of nuclear physics research at the limits of nuclear stability.

• Nuclear Physics
• Heavy Ion Research
• Superheavy Elements
• +۳ مورد دیگر

A. G. Popeko is a nuclear physicist affiliated with GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, a leading research institution in heavy ion physics. Their work focuses on experimental nuclear physics, particularly in the synthesis and study of superheavy elements and heavy neutron-rich nuclides. Popeko's research interests span several critical areas in contemporary nuclear physics: Superheavy element synthesis and identification Decay properties of heavy and superheavy nuclei Multi-nucleon transfer reactions Fission studies of heavy elements Evaporation residue cross-section measurements Nuclear structure at the limits of stability Analysis of Popeko's publication record reveals a strong focus on experimental techniques for producing and identifying new isotopes near the limits of nuclear stability. Their work often involves heavy-ion beam experiments with actinide targets to study fusion-evaporation reactions and transfer processes. The research demonstrates particular expertise in decay spectroscopy and cross-section measurements for rare nuclear reaction products. Popeko has contributed to numerous significant findings in superheavy element research, including studies of decay chains for newly synthesized elements and investigations of fission barriers that determine the stability of the heaviest nuclei. Their work provides essential experimental data that tests theoretical models of nuclear structure in the superheavy region. As a researcher at GSI, Popeko participates in the international scientific collaborations that characterize modern nuclear physics research, working with colleagues from various institutions worldwide to advance our understanding of nuclear matter at extreme conditions.

• Nuclear Physics
• Heavy Elements
• Radioactive Decay
• +۳ مورد دیگر

Dr. Y. Wakabayashi is a nuclear physics researcher at GSI Helmholtz Centre for Heavy Ion Research with strong collaborative ties to RIKEN's Nishina Center for Accelerator-Based Science in Japan. Their work focuses on experimental studies of heavy and superheavy elements, radioactive decay processes, and nuclear structure at the limits of stability. Dr. Wakabayashi's research interests span nuclear physics, heavy element synthesis, radioactive decay properties, and nuclear chemistry of transactinide elements. They investigate the properties of exotic nuclei through heavy-ion fusion reactions, decay spectroscopy, and advanced chemical separation techniques. Their work contributes to understanding nuclear structure models and the theoretical 'island of stability' for superheavy elements. The publication record shows consistent contributions to major journals in nuclear physics, with recent work focusing on beta-decay half-lives of neutron-rich isotopes, alpha decay properties of heavy elements, nuclear charge radii measurements using laser spectroscopy, and chemical studies of transactinide elements. These publications demonstrate expertise across both nuclear structure physics and nuclear chemistry. Dr. Wakabayashi collaborates extensively with international research teams, particularly between German and Japanese institutions, reflecting the global nature of cutting-edge nuclear physics research which requires specialized facilities not available at any single laboratory.

• Nuclear Structure
• Gamma-ray Spectroscopy
• Nuclear Isomers
• +۳ مورد دیگر

Dr. P. M. Walker is a researcher in the Nuclear Physics Department at GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany. His work focuses on nuclear structure physics, particularly the study of high-spin states, nuclear isomers, and decay processes in heavy, neutron-rich nuclei. Dr. Walker's research primarily investigates multi-quasiparticle configurations in heavy elements such as tantalum, tungsten, and rhenium isotopes. His recent work has examined isomeric decay in neutron-rich odd-odd 186 Ta, direct observation of β and γ decay from high-spin isomers in 187 Ta, and multi-quasiparticle states in 178 W. These studies utilize advanced gamma-ray spectroscopy techniques with LaBr 3 (Ce) scintillators and germanium detectors. His publication record shows consistent contributions to the field, with recent papers published in Physical Review C and Physical Review Letters. The research demonstrates expertise in measuring sub-nanosecond half-lives using the centroid shift method and working with experimental setups like DESPEC at FAIR Phase-0. Dr. Walker collaborates extensively with international research teams across Europe and Japan, contributing to major experimental campaigns that advance our understanding of nuclear structure at the limits of stability. His work has significant implications for nuclear astrophysics and testing theoretical models of nuclear structure in exotic nuclei.

• Scientific Metadata
• Research Data Management
• FAIR Principles Implementation
• +۲ مورد دیگر

Dr. A. K. Mistry is a Researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, specializing in scientific metadata and data management for nuclear physics experiments. They lead significant initiatives including NAPMIX (Nuclear, Astro, and Particle Metadata Integration for eXperiments) and contribute to HELPMI (Helmholtz Metadata Collaboration Initiative for Plasma and Laser-Plasma Physics). Dr. Mistry's research focuses on developing metadata frameworks that implement FAIR principles (Findability, Accessibility, Interoperability, and Reusability) for physics research data. Their work bridges nuclear physics experimentation with modern data science approaches to enable better data sharing and reuse across the international physics community. Recent projects include developing a Django & React web application for metadata generation and creating cross-domain metadata schemas that work across traditionally separate physics domains. The research output shows a strong trend toward addressing data management challenges in nuclear physics, with an emphasis on creating practical tools and standards that researchers can implement in their daily work. The publications span both theoretical framework development and practical implementation of metadata solutions for specific experimental setups. Dr. Mistry's scientific contributions are primarily in the development of research data infrastructure rather than traditional physics discoveries, positioning them at the forefront of the data science revolution in physics research. They are actively involved in mentoring through research projects and collaborations, providing students with opportunities to work at the intersection of physics and data science. Their work on metadata standards and data management tools represents an increasingly critical component of modern scientific research infrastructure.

Albert Cerroneمشاهده پروفایل

استادیار

• Digital Twin
• Coastal Hydraulics
• Materials Durability
• +۴ مورد دیگر

Albert Cerrone serves as a Research Assistant Professor in the Department of Civil & Environmental Engineering & Earth Sciences at the University of Notre Dame's College of Engineering and holds a concurrent appointment as Senior Research Fellow at the Oden Institute, University of Texas at Austin. His work bridges academic research and industrial applications through Digital Twin technologies. Dr. Cerrone earned his PhD in 2014 from Cornell University under Tony Ingraffea, specializing in multiscale modeling of microcrack nucleation in superalloys. Prior to Notre Dame, he conducted durability research on ceramic matrix composites at GE Research's Lifing Technologies Laboratory. His research integrates machine learning with computational mechanics to advance Digital Twin frameworks across geospatio-temporal domains and materials systems. Key applications include probabilistic storm surge forecasting using high-fidelity hydrodynamics models, durability assessment of additively manufactured metals, and ultrasound-mediated biofilm disruption for inflammatory disease therapies. He employs transformer networks for real-time hydrodynamic error correction and develops geometric modeling tools for viral and biofilm structures. Recent publications demonstrate a clear trajectory toward operationalizing Digital Twin concepts, with increasing emphasis on machine learning integration for coastal inundation modeling and cross-disciplinary materials characterization. His work spans fundamental mechanics to deployable operational systems like NOAA's STOFS-2D-Global. Dr. Cerrone actively collaborates with NASA Langley on additive manufacturing projects and contributes to cystic fibrosis treatment research with Trinity College Dublin. His laboratory work includes computational modeling using ABAQUS, DREAM.3D, and custom Python frameworks for mesh generation and geometric reconstruction. Developed Polycrystal Volume Mesher for microstructure meshing Created Virion to Shell code for virus geometric modeling Teaches Solid Mechanics, Statics, and Engineering Programming

Anders Thapperمشاهده پروفایل

دانشیار

• Bioinorganic Chemistry
• Biomimetic Chemistry
• Artificial Photosynthesis
• +۳ مورد دیگر

Anders Thapper is an Associate Professor at Uppsala University, working within the Department of Chemistry - Ångström Laboratory in the Synthetic Molecular Chemistry division. His academic appointment is part of the Faculty of Science and Technology, where he conducts research at the intersection of inorganic chemistry and renewable energy technologies. Thapper completed his PhD in Inorganic Chemistry at Lund University, Sweden in 2001. Following his doctoral studies, he undertook a postdoctoral position at Universidade Nova de Lisboa, Portugal with Professor José Moura. In 2005, he returned to Sweden for a second postdoctoral position at Uppsala University, where he began studying Photosystem II under Professor Stenbjörn Styring. Since May 2007, he has been employed as a researcher at Uppsala University's Department of Chemistry. Thapper's research primarily focuses on bioinorganic and biomimetic chemistry, investigating metal complexes that serve as structural and functional models of metal-containing enzymes. His work in artificial photosynthesis centers on developing transition metal complexes as catalysts for water oxidation to oxygen, with the ultimate goal of linking these catalysts to photosensitizers to create solar-driven water oxidation systems. His research spans fundamental studies of catalyst mechanisms to applied work on solar fuel production. Recent publications reveal an expanding research portfolio that now includes lanthanide-based photocatalysis, CO2 reduction, and novel materials for solar energy conversion, demonstrating both depth in his core research area and breadth into related fields. Thapper's publication record shows consistent output in high-impact journals across chemistry, materials science, and energy research fields. His collaborative work spans multiple international institutions, reflecting the interdisciplinary nature of his research in renewable energy technologies. While specific grant information isn't provided in the source text, his sustained publication record suggests successful funding for his research program over many years. Based at the Ångström Laboratory, Thapper works within Uppsala University's established research environment for materials science and renewable energy. His research group appears to be part of broader collaborative efforts in solar fuel production, working with colleagues across chemistry, physics, and engineering disciplines to advance the field of artificial photosynthesis and related energy conversion technologies.