Find Academic Supervisors

• Computational Weld Mechanics
• Finite Element Analysis
• Fatigue and Fracture of Materials
• +3 more

Professor Zuheir Barsoum is a faculty member at KTH Royal Institute of Technology, serving as Vice Head (Research) in the Department of Engineering Mechanics. His research focuses on computational weld mechanics, fatigue assessment of materials, and structural integrity of welded joints. Key areas include high-frequency mechanical impact (HFMI) treatments for fatigue improvement, finite element analysis, and lightweight metal joining. Funded by VINNOVA, SSAB, Volvo, and others, his work addresses industrial challenges in structural durability. Current PhD students include Martin Edgren (bridge structural health monitoring), Mehdi Ghanadi (fatigue of high-strength steels), Yu Zhu (laser cladding simulations), and Kaushik Iyer (LCC modeling of welded structures). He teaches courses like Advanced Design of Welded Structures (SD2420) and oversees degree projects in Lightweight and Solid Mechanics. Notable achievements include the 2010 Henry Granjon Prize for fatigue design research. His startup Winteria AB commercializes digital quality assurance solutions for welding production, aligning with Industry 4.0 trends. Recent research emphasizes probabilistic fatigue modeling, machine learning for weld geometry analysis, and material defect characterization. Collaborations include Chalmers University and Swerim. His work bridges advanced manufacturing, computational mechanics, and industrial applications to enhance structural reliability and lifecycle cost optimization.

Grzegorz GreczynskiView profile

Professor

• Materials Science
• Thin Film Physics
• Surface Science
• +3 more

Grzegorz Greczynski is a Professor and Head of the Unit of Fundamental Science of Thin Films at the Department of Physics, Chemistry and Biology (IFM) at Linköping University. A pioneer in high power impulse magnetron sputtering (HiPIMS) and X-ray Photoelectron Spectroscopy (XPS), he focuses on low-energy ion/surface interactions for nanostructure control during thin film growth, particularly for transition-metal-based nitrides, borides, and carbides. His work bridges industrial applications and academic innovation, with collaborations spanning the University of Illinois (USA) and Aachen University (Germany). PhD in Materials Physics (2001) from Linköping University MSc in Materials Physics (1997) from University of Science and Technology, Krakow, and Linköping University Research interests include: Development of non-destructive XPS analysis methods High-power impulse magnetron sputtering (HiPIMS) for thin film deposition Surface charging mitigation in insulating thin films Phase evolution in nitride and diboride thin films Mechanical properties of multilayer coatings Binding energy referencing in spectroscopy Scientific contributions highlight trends in: Advancements in XPS reliability and calibration Energy-efficient magnetron sputtering techniques High-entropy alloy thin films for extreme environments Space mission plasma probe technology Nanostructured coatings for oxidation resistance Surface analysis of catalytic materials Awards: Fellow of the American Vacuum Society (2018) Collaborations include researchers like Prof. Lars Hultman (LiU), Prof. Joe Greene (University of Illinois), and Prof. Jochen Schneider (Aachen University). His work impacts industries ranging from space exploration to biomedical coatings.

• low dimensional magnetism
• hydrogen in metals
• neutron scattering
• +7 more

Björgvin Hjörvarsson is a Professor in Physics at Uppsala University's Department of Physics and Astronomy, specifically within the Materials Physics division where he served as Head until 2024. He is Principal Investigator of the Super ADAM project, Sweden's national neutron facility, and an elected member of both the Royal Academy of Sciences and the Royal Society of Sciences in Uppsala. His research spans low-dimensional aspects of phase transitions, particularly in magnetism and hydrogen in metals. His work has evolved to emphasize finite size effects on structural and magnetic ordering, additive manufacturing, and energy storage and transformation. His research methodology heavily relies on neutron scattering techniques and international collaborations across experimental and theoretical physics. Hjörvarsson's recent publications (2022-2025) reveal a strong focus on metallic glasses produced via additive manufacturing, artificial spin ice systems, magnetic superlattices, and advanced characterization techniques. His work bridges fundamental physics with practical applications in energy storage, materials engineering, and biomedical technologies. Vattenfalls Energistipendium (1985) Liljewalchs scholarship (1989) Good-Guy Award from Fysiska Sällskapet (1990) Idée award from Uppsala University (1995) Benzelius award from Royal Society of Sciences of Uppsala (1995) Letterstedtska award from Royal Swedish Academy of Sciences (2003) Hjörvarsson has supervised 27 PhD students to completion, 1 licenciate student, and currently guides 9 PhD students while supervising 2-3 master's students annually. His research is supported by significant infrastructure including the Super ADAM neutron facility at ILL, Grenoble, which he initiated and developed as Sweden's national neutron scattering infrastructure. Beyond traditional research, he's known for innovative outreach efforts including educational videos on neutron science. Hjörvarsson leads the Materials Physics research group, which maintains strong international collaborations and focuses on experimental condensed matter physics with connections to engineering applications. His team operates specialized laboratories for thin film growth, magnetic characterization, and neutron scattering experiments, supporting both fundamental research and industrial applications.

Edvin Tobias Bokvist WrammerforsView profile

Researcher

• Medical Engineering
• Osteoarthritis
• Neutron Tomography
• +7 more

Edvin Tobias Bokvist Wrammerfors is a doctoral student at the Division for Biomedical Engineering , under the Faculty of Engineering at Lund University . His work focuses on cartilage characterization for osteoarthritis research , utilizing advanced imaging technologies such as neutron tomography and phase-contrast x-ray tomography . Research interests include: Osteoarthritis diagnostics through novel imaging techniques Biomechanics of knee joint tissues Multimodal imaging methods for microstructural analysis Articular cartilage and connective tissue mechanics Recent research output (2024) demonstrates trends in synchrotron imaging , in situ mechanical testing , and microstructural characterization . Collaborations include international partners and Lund University's Engineering Health profile area. Active projects include the PhD Project - Characterization of knee joint tissues via novel neutron and synchrotron imaging techniques , supervised by Professor Hanna Isaksson. Current affiliations involve: Lund University - Faculty of Engineering - Biomedical Engineering Engineering Health profile area Research network spanning medical engineering and connective tissue disciplines

Naureen GhafoorView profile

Associate Professor

• Thin Film Physics
• Nanomaterials Science
• Neutron Optics
• +5 more

Naureen Ghafoor is an Associate Professor (Docent) at Linköping University, affiliated with the Department of Physics, Chemistry and Biology (IFM) and the Thin Film Physics Division. Her research focuses on advanced materials for neutron and X-ray optics, particularly multilayer structures and thin film physics. Dr. Ghafoor's research interests span thin film physics , nanomaterials science , and neutron optics . She specializes in the development and characterization of multilayer materials, particularly those involving iron-silicon structures with boron carbide interlayers for neutron optical applications. Her work combines advanced deposition techniques like magnetron sputtering with detailed materials characterization to optimize performance in neutron optics and related fields. A key innovation in her research involves the strategic use of isotope-enriched boron carbide (11B4C) to create atomically flat interfaces that enhance the optical properties of multilayer structures. Her recent publications demonstrate a strong focus on enhancing the performance of neutron optical components through innovative materials engineering. Key themes include the use of isotope-enriched boron carbide (11B4C) to improve interface quality in multilayer structures, the development of stress-free diaphragms for medical applications like inner ear implants, and the creation of superstructured materials with exceptional mechanical properties that combine metal-like ductility with high hardness. These advancements have significant implications for both scientific instrumentation and medical device technology. Postdoctoral scholarship in Thin Film Physics granted by Carl Tryggers Stiftelse (600,000 SEK) for studying "Stress-free Diaphragms for Long-lasting Inner Ear Implants" Dr. Ghafoor is actively involved in research commercialization and technology transfer. She is a co-founder of Quantum Beam Optics (QBO), a startup company that aims to bring advanced multilayer neutron optics technology to the international market. Her laboratory work is centered in the Thin Film Physics Division at IFM, where she leads research on nanomaterials science with applications spanning from fundamental neutron optics to practical medical devices. Her research group collaborates extensively with international partners and contributes significantly to advancing the field of neutron optical components.

• Nanomaterials
• Energy Conversion
• Energy Storage
• +5 more

Jonas Örtegren is an Associate Professor and Senior Lecturer in the Department of Engineering, Mathematics and Subject Didactics at Mid Sweden University. He serves as the subject representative for Engineering Physics and program manager for both the Master of Science program in Engineering Physics (years 4-5) and the project-based Master by Research in Engineering Physics program. His research focuses on nanomaterials and functional surfaces for energy applications. Örtegren's research explores nanomaterials, functional materials, and surface science with applications in energy conversion (nanogenerators) and energy storage (batteries). His work spans triboelectric energy harvesting, plasmonic devices, battery electrode design, and sustainable energy solutions. Current projects include IMPHET (Innovation Environment for Advanced Materials and Processes with Sustainable Energy Applications) and aluminum-graphite dual-ion battery development. Analysis of his recent publications reveals strong focus on: Advanced battery technologies including silicon anodes and aluminum-ion systems Triboelectric nanogenerators using sustainable materials like wastepaper Plasmonic devices for optical applications Surface engineering and nanomaterial synthesis techniques Primary research trends show integration of energy harvesting with materials science and nanotechnology. Örtegren manages multiple research projects: Flexibla och hållbara fastfasbatterier (Flexible solid-state batteries) ALGCC (Graphene-coated aluminum current collectors) IMPHET innovation environment Aluminum-graphite dual-ion battery development He is affiliated with the FSCN Research Centre and supervises research in nanomaterials and energy systems. No specific students or awards are mentioned in the source material.

• Materials Science
• Mechanical Engineering
• Manufacturing Engineering
• +5 more

Rohollah Ghasemi is a Senior Lecturer in Mechanical Engineering at the School of Engineering Science , University of Skövde. His research focuses on materials science , manufacturing processes , and tribology , with particular emphasis on compacted/graphite iron microstructure analysis and laser welding optimization . His recent publications (2022–2025) explore advanced manufacturing techniques, including deep learning applications for welding quality prediction and multi-physics simulations for recoil force validation. Earlier works (2014–2019) investigate abrasion resistance , scratch mechanisms , and austempering variables in cast iron systems. Key Research Trends : Process-induced stress modeling, laser welding of dissimilar materials, microstructural engineering of CGI, tribological behavior under load, meta-model optimization Collaborations : Kent Salomonsson, Tobias J. Andersson, Anders E.W. Jarfors, Attila Dioszegi

Heike HerperView profile

Researcher

• Magnetic Materials
• Density Functional Theory
• Computational Materials Science
• +3 more

Heike Herper is a Researcher at the Department of Physics and Astronomy (Materials Theory) at Uppsala University . Her work focuses on computational studies of magnetic materials, particularly for permanent magnet applications and magnetocaloric systems, within the NOVAMAG EU project . Affiliation: Uppsala University, Materials Theory Email: heike.herper@physics.uu.se Research involves Density Functional Theory (DFT) calculations combined with Monte Carlo simulations to model finite temperature effects. Key projects include identifying non-hazardous permanent magnet alternatives, studying rare-earth materials, and developing electronic structure databases. Recent publications highlight her expertise in analyzing: Pressure-induced stacking faults in Gd (2024) Giant magnetocaloric effects in Mn,Fe NiSi (2024) Rare-earth-free magnets via high-throughput screening (2023) Magnetic phase diagrams of Heusler alloys (2022) Electronic structure of transition metal complexes (2020)

Per PerssonView profile

Professor

• Materials Science
• Electron Microscopy
• MXenes
• +4 more

Per Persson is a Professor and Head of Unit at Linköping University's Department of Physics, Chemistry and Biology (IFM), specializing in advanced electron microscopy and materials science. He leads the Electron Microscopy of Materials unit and has been instrumental in developing Ångströmhuset, one of the world's most advanced microscopy facilities. PhD in Materials Science, Linköping University (2001) Postdoctoral research at University of Illinois (2002-2003) Extensive international experience in electron microscopy and materials characterization His research focuses on atomic-scale characterization of materials, particularly MXenes. Key areas include: Defect engineering in 2D materials Surface chemistry and stability of MXenes Development of advanced electron microscopy techniques Energy storage applications in nanomaterials Structure-property relationships in low-dimensional systems Materials tailoring at atomic resolution Recent research trends show strong emphasis on: Atomic-scale defect manipulation via chemical etching Topological insulator characterization using polarized spectroscopy Epitaxial growth engineering with oxide seed layers Electronic structure analysis of alloyed nitrides Radiation effects on nuclear materials Scientific achievements include: VR Special Researcher (2008-2014) SSF Infrastructure Fellow (2015-2020) Principal Investigator at Advanced Functional Materials His grants and infrastructure leadership have resulted in: Procurement of northern Europe's most advanced electron microscope SEK 44 million WISE grant for materials research equipment Over SEK 100 million investment in microscopy infrastructure Leadership in multiple Swedish Research Council projects As a founding figure in Ångströmhuset, Persson oversees a research environment serving >100 users, blending experimental and theoretical approaches to materials design.

• Nanotechnology
• Material Science
• Bio-based Materials
• +3 more

Professor Daniel Söderberg is affiliated with KTH Royal Institute of Technology, where he holds the position of Professor of processes from fibre-based materials from forest raw materials. His research focuses on understanding natural material formation processes, particularly using cellulose nanofibrils as building blocks, to develop scalable industrial methods for creating high-performance bio-based materials. He employs advanced experimental techniques such as synchrotron X-ray imaging and neutron scattering to study material behavior at the nanoscale, contributing to sustainable, renewable material innovations. His research interests revolve around the development of bio-based materials and industrial processes inspired by natural mechanisms. Key areas include: Nanofibril assembly and self-organization in fluid systems Cellulose nanofibril-based composites and thin films Scalable production of high-performance bio-based materials Advanced characterization techniques (e.g., synchrotron X-ray imaging, neutron scattering) Material dynamics under various environmental conditions (e.g., humidity, compression) Integration of renewable materials into electronic and structural applications Recent research trends emphasize the application of machine learning for analyzing material dynamics, optimization of spray deposition techniques for scalable production, and exploration of lignin and cellulose nanocomposites for renewable materials. Collaborations with facilities like the MAX IV synchrotron highlight his focus on advanced imaging and structural analysis for material innovation. In advising and grants, Dr. Söderberg has contributed to research projects involving pilot-scale manufacturing processes and collaborations with advanced facilities like the MAX IV synchrotron. While specific student names or detailed grant information are not provided here, his work reflects a strong emphasis on team-based research in nanomaterials and sustainable technologies. He is also involved in academic ceremonies at KTH, including the 2021 Professorial Inauguration. Dr. Söderberg collaborates with the ForMAX beamline at MAX IV synchrotron in Lund, focusing on multiscale structural characterization of hierarchical materials. His research also involves the pilot-scale Experimental Paper Machine (XPM) for material production studies, examining fire retardant composites and nanopaper fabrication.

• Metallurgical Engineering
• Materials Science
• Sustainable Manufacturing
• +3 more

Mikael Ersson is a Professor at the Royal Institute of Technology (KTH) in Stockholm, Sweden. He holds a prominent role in the Department of Materials Science and Engineering, contributing to academic leadership and research in metallurgical processes and sustainable materials production. His work focuses on advancing fossil-free steel production through innovative metallurgical processes and numerical modeling of high-temperature systems. Professor Ersson leads the MSc programs in Materials Design and Materials Science at KTH, emphasizing education and training for the next generation of materials engineers. He is actively involved in teaching courses such as Fluid Mechanics and Heat Transport, Material Design I, and Thermodynamics I, reflecting his expertise in both theoretical and applied aspects of materials science. His research interests span metallurgical process optimization, steel production sustainability, fluid mechanics in casting systems, and electromagnetic stirring. He employs computational fluid dynamics (CFD) and numerical modeling to study phenomena such as melt pool dynamics, solidification behavior, and inclusion transport in steel and magnesium alloys. Recent projects include investigations into hydrogen-reduced iron production, swirling flow effects in casting systems, and decarburization processes in converters. Professor Ersson collaborates with industry partners to bridge academic research with industrial applications, driving innovation in environmentally friendly steel manufacturing. His contributions have impacted the Nordic and EU steel industry's transition to sustainable practices. He is also engaged in academic outreach, organizing events like the Library Fair and contributing to student development through KTH’s campus initiatives.

Shafiqul IslamView profile

Associate Professor

• Mechanical Engineering
• Fracture Mechanics
• Sheet Metal Forming
• +3 more

Shafiqul Islam is an Associate Professor at the Department of Mechanical Engineering, Blekinge Institute of Technology, Sweden. His research focuses on simulation-driven product development, material characterization, and finite element modeling of cracks in packaging materials and sheet metal forming processes. He has served as a Research Project Manager for initiatives like CiSMA (Circular Steel for Mass-Market Applications) and completed projects including PREDICT and MD3S+ . Research interests include: Fracture mechanics of packaging materials Sheet metal forming and failure prediction Ultrasonic welding techniques Deep learning applications in manufacturing defect detection Recent publications highlight advancements in lightweight deep learning models (e.g., LightYOLO , MA-SPRNet ) for welding defect detection and metal forming simulations. His work spans both industrial applications (e.g., automotive body components) and fundamental material behavior studies (e.g., peeling of metal foils, HDPE stress triaxiality).

Urban WiklundView profile

Professor

• Tribology
• Wear Mechanisms
• Surface Engineering
• +15 more

Urban Wiklund is a Professor at the Department of Materials Science and Engineering, Applied Materials Science, Uppsala University, Sweden. He is based at the Ångström Laboratory and conducts research in materials engineering with a focus on wear, friction, coatings, and additive manufacturing. Research Interests: His work spans tribology, surface engineering, tool wear, residual stress in additively manufactured components, and microstructure analysis. He investigates material degradation in industrial processes such as metal forming, electrical contacts, and wood pulping. His research combines experimental tribology with advanced modeling and characterization techniques. The recent publications highlight a strong trend in additive manufacturing (e.g., laser powder bed fusion of Ti alloys, Alloy 718, and Alloy 625), tribological performance of coatings and tools in metal processing (especially copper and brass), and mechanical behavior of sintered and composite materials. His work often involves collaboration with industry-relevant applications such as zipper production, gear cutting, and electrical connectors. Scientific Engagement: Extensive collaboration with researchers in tribology and materials science. Regular contributions to journals such as Wear , Materials & Design , and Surface & Coatings Technology . Active participation in Nordic and international tribology symposia. Advising and Grants: While specific students and grants are not listed, his long publication history and supervisory role in numerous collaborative studies suggest active mentorship and research leadership. He has likely secured funding for projects related to advanced manufacturing and materials durability. Laboratories and Teams: He is affiliated with the Applied Materials Science division at Uppsala University, which has strong capabilities in surface engineering, tribology testing, and materials characterization, including nanoindentation, FIB/TEM, and synchrotron techniques.

• Nuclear Engineering
• Materials Science
• Fuel Performance Analysis
• +3 more

Faris Sweidan is a Researcher at the Department of Nuclear Science & Engineering, KTH Royal Institute of Technology. His work focuses on advanced nuclear materials, fuel performance, and reactor safety. Key research areas include fission product behavior, thermal conductivity of nuclear fuels, microstructural evolution under irradiation, and plasma-facing materials for fusion applications. He employs computational modeling (e.g., finite element analysis, kinetic Monte Carlo) and experimental techniques (e.g., spark plasma sintering) to study material behavior under extreme conditions. Research interests extend to functionally graded materials, composite fuel design (e.g., UN-UO2), and safety analysis of next-generation reactors such as micro lead-cooled fast reactors. His studies address challenges like fuel fragmentation during loss-of-coolant accidents (LOCA) and erosion-resistant coatings for zirconium alloys. Sweidan collaborates on projects involving uncertainty quantification in fuel performance codes (FRAPCON, FRAPTRAN) and material property characterization under irradiation. Publications highlight innovations in spark plasma sintering for ceramic fabrication, thermal conductivity modeling of novel fuels, and sensitivity analyses for dispersion fuel systems. Despite no listed awards, his contributions advance nuclear energy through interdisciplinary materials research and reactor safety methodologies.

• Biomaterials
• Nanotechnology
• Biomedical Engineering
• +4 more

Martin Andersson is a Full Professor in Applied Chemistry at the Department of Chemistry and Chemical Engineering, Chalmers University of Technology. He also serves as Head of Unit and Deputy Head of Department. His research focuses on biomaterials, nanotechnology, and biomedical applications, with a strong emphasis on antimicrobial materials, surface engineering, and tissue-implant interactions. Key areas include the development of nanostructured coatings for medical implants, photothermal antibacterial agents, and drug-delivery systems using mesoporous materials and lyotropic liquid crystals. His work bridges materials science and biomedicine, addressing challenges in infection control, osseointegration, and controlled drug release. Notable projects involve gold nanorods for photothermal therapy, silica-embedded nanoparticles analyzed via atom probe tomography, and antimicrobial hydrogels. Over 135 publications reflect his contributions to journals like ACS Nano , Nano Letters , and Acta Biomaterialia . Research trends highlight innovation in nanomaterial characterization (e.g., THz-driven atom probe tomography), biomimetic mineralization, and functionalized surfaces for medical applications. Collaborations span academia and industry, addressing clinical needs in dentistry, orthopedics, and wound care. Andersson leads research groups focused on advanced materials for healthcare, emphasizing interdisciplinary approaches to improve implant performance and patient outcomes. His labs integrate cutting-edge microscopy, chemical synthesis, and biomedical testing to advance next-generation biomaterials.