Gustav Amberg is a Professor at KTH Royal Institute of Technology, affiliated with the Flow Mechanics research group within the School of Engineering Sciences. His primary appointment is in the Department of Mechanics, where he focuses on fluid dynamics, multiphase flow, and interfacial phenomena. He holds a permanent full professorship with no indication of兼职 roles. Research interests center on dynamic wetting mechanisms, phase-field modeling, and computational fluid dynamics applied to complex fluid systems. His work explores contact line behavior, microstructured surface interactions, and material phase transformations. Notable areas include rapid droplet spreading, viscoelastic fluid dynamics, and boiling heat transfer on engineered surfaces. Recent studies investigate the interplay between surface topography and wetting dynamics, oscillatory contact line phenomena, and numerical benchmarking across molecular and continuum models. He has pioneered methods for simulating surfactant effects in multiphase flows and developed novel approaches for analyzing weld pool behavior during sintering processes. No academic awards or grants are explicitly listed in the provided materials. His advising record remains undisclosed, though his prolific publication history suggests active research supervision. Laboratory affiliations are not detailed, but his work aligns with KTH's broader initiatives in computational mechanics and materials science.
Joakim Odqvist is a Professor and Head of Department at the Structures unit within the Royal Institute of Technology (KTH). He specializes in materials science, with a focus on phase separation in alloys, nanostructure evolution, and the mechanical behavior of advanced materials. His research integrates experimental techniques like small-angle neutron scattering and atom probe tomography with computational modeling to study materials such as stainless steels, cemented carbides, and cast irons. Odqvist teaches courses in ceramic materials, material design, and materials structures, mentoring students at both undergraduate and graduate levels. His work addresses challenges in corrosion resistance, fatigue, and additive manufacturing, contributing to the development of high-performance materials for industrial applications. Research Interests: Phase separation mechanisms, spinodal decomposition in Fe-Cr alloys, nanostructure evolution in duplex stainless steels, diffusion kinetics, and the application of statistical models to hydrogen diffusion. His studies often bridge fundamental material science with practical engineering solutions, emphasizing predictive simulations and material design. Recent Articles: His publications focus on controlling nanostructures in super duplex steels, functional gradient carbides, and statistical models for hydrogen diffusion. Key themes include optimizing heat treatments to mitigate embrittlement, understanding precipitation kinetics in additively manufactured materials, and leveraging phase field modeling to predict material behavior. These studies highlight his role in advancing materials for harsh environments, such as aerospace and energy sectors.
Johan Liu is a Full Professor in Electronics Production at Chalmers University of Technology, Sweden, and leads the Electronics Materials and Systems Laboratory within the Department of Microtechnology and Nanoscience. He is a member of the Royal Swedish Academy of Engineering Sciences and an IEEE Fellow, with over 500 publications and 75 patents in nanoelectronics and thermal management. Education: Master's and Ph.D. in Materials Science from the Royal Institute of Technology (KTH), Sweden His research focuses on graphene-based thermal interface materials, carbon nanotubes for 3D integration, and advanced packaging solutions. Recent work includes laser-induced graphene films, nano-soldering techniques, and biomedical nanoscaffolds. His publications span high-impact journals like Nature Communications , Advanced Materials , and IEEE Transactions , with recent trends emphasizing thermal conductivity enhancement, composite materials, and nanofluids. Johan has received prestigious awards including the IEEE Exceptional Technical Achievement Award and IEEE CPMT Best Paper Award. He has secured funding from the National Science Foundation (NSF), Swedish Board for Strategic Research (SSF), Vinnova, and EU Horizon 2020 programs. His lab specializes in scalable graphene synthesis, CNT array engineering, and reliability testing of nanomaterials in electronics.
Powder Metallurgy (MH2100) and has expertise in computational materials science. His research emphasizes predictive modeling of material behavior, including precipitation kinetics, sintering processes, and coating interactions. Notable areas include phase field modeling of discontinuous precipitation, spinodal decomposition in Fe-Cr alloys, and high-entropy alloy design. His studies bridge experimental data with computational tools like the YAPFI phase-field framework. Key themes in his publications span cemented carbides, Co-based entropic alloys, and tool wear mechanisms. He combines CALPHAD thermodynamic modeling with first-principles calculations to address challenges in materials processing and corrosion resistance. His work often addresses industrial applications, such as optimizing machining tools and additive-manufactured superalloys.
Cecilia Persson is a Professor at Uppsala University in the Department of Materials Science and Engineering; Biomedical Engineering. She leads the BioMaterial Systems (BMS) research group within the Division of Biomedical Engineering, focusing on the development of new biomaterials through additive manufacturing. She also directs a Competence Centre in Additive Manufacturing for the Life Sciences and the national Research Technology Platform WISE Additive. 2018, Professor in Materials Science, Uppsala University 2015, Docent (Assoc. Prof.) in Engineering Science with Specialization in Materials Science, Uppsala University 2009, PhD in Mechanical Engineering, University of Leeds 2004, MSc in Materials Engineering, European degree (EEIGM) with triple diploma Persson's research focuses on biomaterials, biomechanics, materials science, and additive manufacturing. Her work takes an integrated approach to solving clinical and sustainability problems, combining materials science, mechanical and biological engineering with new technologies like 3D printing and machine learning. Key research areas include magnesium-based alloys for bone substitutes, titanium-based alloys for permanent implants, and machine learning methods to enhance manufacturing efficiency. Analysis of her recent publications shows a strong emphasis on additive manufacturing of biomaterials, particularly magnesium and titanium alloys. Her work explores microstructure control, mechanical properties optimization, antibacterial properties, and patient-specific implant design. The research demonstrates a clear trajectory toward more sustainable, patient-adapted medical solutions using advanced manufacturing techniques. Persson has received funding from prestigious organizations including the Swedish Research Council (VR), the Knut and Alice Wallenberg Foundation (KAW), the Swedish Foundation for Strategic Research (SSF), Sweden's Innovation Agency (VINNOVA), and the EU. As an academic leader, Persson has served as Section Dean of Engineering (2020-2023), President of the Scandinavian Society of Biomaterials (2019-2023), and Coordinator of EU Innovative Training Network NU-SPINE (2019-2023). Her BioMaterial Systems research group takes an integrated approach to solving clinical and sustainability problems, bridging fundamental scientific mechanisms with high societal relevance.
Peter Hedström is a Professor of Materials Science at the Department of Materials Science and Engineering, KTH Royal Institute of Technology. He leads the Hultgren Laboratory for Materials Characterization and directs the Center for X-rays in Swedish Materials Science (CeXS) and the Vinnova competence center NEXT. His research focuses on advanced materials characterization, structure-property relations, and materials design, particularly in metallic alloys, steels, ceramics, and composites. He co-founded companies Ferritico and Scatterin based on his research. Hedström’s work leverages large-scale infrastructure like synchrotron and neutron methods, with key projects including ENDUREIT for improving duplex stainless steels and Track-AM for additive manufacturing analysis. Education: PhD from Luleå University of Technology. Earlier roles at MEFOS/Swerim before joining KTH in 2008. Research Interests: Phase transformations, materials characterization (e.g., synchrotron/X-ray/neutron techniques), additive manufacturing, machine learning applications, and fatigue mechanics. His group explores topics like low-temperature embrittlement, microstructure-strength relationships, and cemented carbide sintering. Articles Trends: Recent work emphasizes in-situ observations of phase separation, precipitation kinetics, and microstructural stability under fatigue. Studies often integrate computational modeling with experimental methods, highlighting interdisciplinary approaches. Grants/Projects: Directs CeXS (hosting the Swedish beamline P21 at PETRA III) and NEXT. Active in EIT Raw Materials (ENDUREIT) and MMD initiatives. Supervises PhD/postdoc projects in neutron scattering, Mg-AM, and machine learning. Labs/Teams: Hultgren Laboratory, SwedNess graduate school, and collaborations with industrial partners like Ferritico.
Professor Teodora Retegan Vollmer leads the Nuclear Chemistry and Industrial Materials Recycling unit at Chalmers University of Technology, Sweden. Her research focuses on the chemical safety of advanced nuclear reactor systems , including fuel-coolant-cladding interactions under normal and extreme scenarios, and novel nuclear fuel pathways via Partitioning for Transmutation (P&T) . She also drives hydrometallurgical innovations for materials recycling, particularly in WEEE (waste electrical and electronic equipment) and mining tailings. Her work spans European Commission (EC) projects like A-CINCH for nuclear education, SAFETY for accident-tolerant fuels, and RareGreen for sustainable rare earth processing. She collaborates closely with industry through platforms like ENEN (European Nuclear Education Network) and ANItA (Academic-Industrial Nuclear Technology Initiative). Key Research Themes: Nuclear Reactor Safety (Lead/Bismuth Coolants) Advanced Fuel Development (Uranium Nitride, Thorium Doping) Rare Earth Recovery (Neodymium Magnets, Fluorescent Lamps) Solvent Extraction (BTBP Ligands, TODGA, Cyanex 572) Urban Mining (E-Waste Recycling) Notable Projects: ENEN2plus (2022–2026) SKILLS4NUCLEAR (2024–2028) PASCAL (2020–2024)
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.
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.
Dr. Sharafat Ali is an Associate Professor in the Department of Built Environment and Energy Technology at Linnaeus University's Faculty of Technology. With over two decades of experience spanning academia, research, and industry, Dr. Ali has established himself as a leading materials scientist specializing in high-temperature synthesis, advanced materials, and sustainable energy applications. Dr. Ali's educational background includes: Master's degree in Material Process Technology (2002) from the Royal Institute of Technology (KTH), Sweden Ph.D. in Materials Chemistry (2009) from Stockholm University, Sweden Postdoc in Glass Science from Linnaeus University, Sweden and Nagoya Institute of Technology, Japan (2009-2012) Dr. Ali's research focuses on the development and characterization of advanced glass and ceramic materials, particularly nitrogen-rich glasses, oxide glasses, glass-ceramics, and their applications in solid-state batteries and sustainable technologies. His work spans fundamental materials science to applied industrial solutions, with emphasis on understanding structure-property relationships in complex glass systems. He has made significant contributions to the field of high-temperature synthesis of advanced materials and has developed innovative thin films for high-tech applications. Analysis of Dr. Ali's recent publications reveals a strong focus on oxynitride glasses and glass-ceramics, with particular attention to their structural, thermal, mechanical, and electrical properties. His research demonstrates interdisciplinary applications spanning energy storage, biomedicine, electronics, and sustainable construction materials. The work often involves sophisticated synthesis techniques such as spark plasma sintering and laser melting, combined with comprehensive characterization methods. Dr. Ali's research has been supported by competitive grants from: Vinnova Åfors Crafoord JSPS LNU Advanced Materials As an educator, Dr. Ali has developed and taught diverse courses in materials science and sustainable energy systems while mentoring numerous Postdoc, Master's, and Bachelor's students. His research leadership encompasses multiple ongoing projects including 'Complex oxynitride glasses – the quest for luminescence and structural origin' and 'Machine learning for predicting mechanical properties of high-performance oxynitride glasses.' His industrial collaborations with organizations like Corning Incorporated have translated research into practical applications. Dr. Ali's research group works within the Bioresource Technology environment at Linnaeus University, focusing on the intersection of materials science, energy technology, and sustainable development. The group maintains strong international collaborations and has access to state-of-the-art facilities for glass synthesis, thin film deposition, and materials characterization.
Namsoon Eom is a Senior Lecturer in the Department of Mechanics, Materials and Component Design at Lund University’s Faculty of Engineering (LTH). She is also a researcher at NanoLund: Centre for Nanoscience and a member of the LU Profile Area: Light and Materials. Her work focuses on computational nanomaterials research, with a strong emphasis on atomistic simulations and machine learning integration. Primary Affiliation: Department of Mechanics, Materials and Component Design, LTH, Lund University Secondary Affiliations: NanoLund: Centre for Nanoscience, LU Profile Area: Light and Materials Her research spans computational materials science, with a focus on metallic nanoparticles, nanowires, and their interfaces. Key projects include studies of diffusion in bimetallic systems nanowire growth mechanisms oxidation processes in nanoparticles machine learning for pattern recognition in simulation data Recent publications highlight her work in nanotechnology and materials synthesis, particularly in core-shell nanoparticle design and gas-phase synthesis methods. Trends include atomistic modeling of surface segregation, sintering, and oxidation phenomena. Scientific recognition includes the 2019 NanoLund Junior Scientist Ideas Award . She has supervised PhD students in projects related to heterogeneous nanoparticle synthesis and characterization. Her work aligns with UN Sustainable Development Goals, particularly in advancing nanotechnology for sustainable materials and energy-efficient synthesis methods.
Thomas Öhlund is a researcher at Mid Sweden University’s Department of Engineering, Mathematics and Subject Didactics (IMD), affiliated with the FSCN Research Centre. His work focuses on printed electronics, particularly silver nanoparticle inks, sintering processes, and flexible substrates. He has contributed to advancements in inkjet printing technologies for electronics manufacturing. Position: Researcher Institution: Mid Sweden University Department: IMD Location: Sundsvall Öhlund’s research spans nanofilm deposition, nanopaper applications, and surface engineering for printed electronics. He has co-authored studies on soap-film coating for multilayer nanofilms and sintering inhibition mechanisms using AgCl nanocrystals. His work addresses challenges in achieving conductive patterns on paper and plastic substrates. Key collaborations include projects like LEAP (Large-area Energy Application Platform). His articles highlight expertise in metal nanoparticle processing, flexible electronics, and substrate interactions. Current trends in his publications emphasize scalable fabrication methods and energy-efficient electronics. Öhlund has been involved in industry-academic partnerships, particularly for improving inkjet printing quality on non-traditional substrates. He contributes to understanding ink-substrate interactions and optimizing sintering for printed conductors.
Peter Gudmundson is a Professor of Material Mechanics at KTH Royal Institute of Technology since 1992. His research focuses on mechanical degradation mechanisms in lithium-ion batteries and strain gradient plasticity theories. He currently chairs the board of the Mechanics and Materials Design (MMD) center and the Wallenberg Wood Science Center (WWSC). He serves as a board member of Akademiska Hus AB and chairs the Future Research Leader program at the Swedish Foundation for Strategic Research (SSF). Dr. Gudmundson holds an MSc (1979) and PhD (1982) in Engineering Physics and Solid Mechanics from KTH. He served as KTH President (2007–2016), Head of the Department of Solid Mechanics (1993–2005), and has extensive industrial experience as a research engineer, consultant, and CEO. His research interests span energy storage materials, advanced mechanical modeling, and composite materials. Key contributions include predictive models for battery electrode mechanics and strain gradient plasticity theories for small structural scales. Collaborations involve professors Per-Lennart Larsson and Jonas Faleskog. Awarded the H.M. The King's Medal (2011) and a Fellowship from the University of Tokyo (2013), he actively participates in academic governance and national committees, including the Royal Swedish Academy of Engineering Sciences (IVA).
Louise Rosenblad is a doctoral student at KTH Royal Institute of Technology, affiliated with the Material and Structural Mechanics department. Her PhD project focuses on simulating sintering processes of cemented carbides, combining experimental and computational approaches to develop robust constitutive models. She assists in teaching Solid Mechanics courses, including SE1010 and SE1055. Her research interests center on advanced materials science, solid mechanics, and the optimization of sintering processes for cemented carbides. Through experimental investigations and parametric modeling, she explores material behavior, microstructural evolution, and mechanical property predictions in these materials. Louise's publications highlight trends in constitutive modeling for sintering dynamics, robustness analysis of material models, and experimental validation of sintering mechanisms. Her work bridges theoretical frameworks with industrial applications in materials processing and advanced manufacturing. While no scientific awards are listed, her contributions to cemented carbide research reflect a commitment to advancing material science methodologies. Her PhD project is supported by the Material and Structural Mechanics unit at KTH, emphasizing collaborative research in computational and experimental mechanics.
Sokkalingam Rathinavelu is an Associate Senior Lecturer at Karlstad University, specializing in Additive Manufacturing Research. His work focuses on advanced materials processing techniques, particularly in high-entropy alloys, bimetallic structures, and powder metallurgy. His research interests include additive manufacturing processes like selective laser melting, dissimilar welding techniques, and structure-property correlations in materials. He has extensively studied the mechanical and corrosion properties of high-entropy alloys and composites, often using methods like electron beam welding and spark plasma sintering. Recent articles highlight innovations in in-situ alloying strategies, densification mechanisms of novel materials, and the optimization of bimetallic interfaces. His work bridges fundamental material science with practical applications in aerospace, biomedical, and structural engineering sectors. No scientific awards are explicitly mentioned. Advising records or grant details are not provided in the available texts. His research often involves collaborations on advanced material systems, with a focus on microstructural analysis and process optimization.
