Raffaela Cabriolu is an Associate Professor in the Department of Physics at the Norwegian University of Science and Technology (NTNU). Her research focuses on computational and theoretical physics, materials science, and molecular dynamics simulations, with applications in colloidal systems, nanoporous materials, and soft matter physics. Her research interests include: Light propagation in colloidal particle systems Structural transitions in calcium carbonate Interfacial phenomena in ionic liquids Diffusion mechanisms in nanoporous materials Phase transitions under pressure Statistical mechanics of complex systems Recent work highlights trends in computational modeling, nanomaterials, and fluid dynamics. She has contributed to educational advancements in molecular simulation pedagogy and participated in outreach initiatives like the 2023 CSCS interview exploring nanobubble dynamics. Her teaching portfolio includes courses in electricity and magnetism (FY1003), numerical physics (TFY4235), and advanced numerical physics (FY8904).
Morten Amundsen is a Postdoctoral Fellow in the Department of Physics at the Norwegian University of Science and Technology (NTNU), actively contributing to cutting-edge research in condensed matter physics. His work bridges theoretical and experimental approaches in superconductivity and spintronics, with affiliations centered at NTNU's physics department where he maintains active research and teaching roles. His research spans: Superconducting hybrid structures and quantum transport phenomena Spin-orbit coupling effects in topological materials Geometric curvature manipulation of magnetic and superconducting states Josephson effect engineering in novel geometries Antiferromagnetic spintronics and altermagnetism Analysis of his 15 most recent publications (2020-2025) reveals a dominant focus on the interplay between superconductivity and magnetism, particularly through spin-orbit coupling mechanisms. Key trends include geometric engineering of quantum states (via curvature and fractal structures), electrical control of superconducting spin valves, and exploration of Rashba altermagnets. His work frequently employs quasiclassical theory and Keldysh formalism to model complex hybrid systems, with strong emphasis on topological aspects and non-equilibrium phenomena. Dr. Amundsen maintains extensive collaborative networks, frequently publishing with NTNU researchers including Jacob Linder, Henning Goa Hugdal, and Sol Hernæs Jacobsen. His active conference participation—such as presentations at the European School on Superconductivity and Magnetism (2024) and New Avenues in Quantum Materials (2024)—demonstrates ongoing engagement with the international research community. While specific grant details aren't provided, his high publication output in premier journals indicates sustained research funding.
Marisa Di Sabatino is a Professor of Physical Metallurgy at the Department of Materials Science and Engineering, Norwegian University of Science and Technology (NTNU). She holds a Master's from Marche Polytechnic University (2002) and a PhD from NTNU (2005), with a visiting PhD stint at Worcester Polytechnic Institute (2004). Before becoming a Professor in 2017, she served as an Associate Professor (2010–2016), and previously worked at SINTEF Materials and Chemistry (2007–2010). Her research focuses on crystallization/solidification of silicon for solar cells, advanced material characterization (e.g., Glow Discharge Spectrometry), castability of light alloys, and silicon crucible technology. Key contributions include optimizing Czochralski silicon growth processes, mitigating structural defects, and advancing understanding of impurity effects in semiconductors. Education: PhD in Physical Metallurgy, NTNU (2005) Master in Materials Science, Marche Polytechnic University (2002) Her work has been recognized with awards such as the Dr Mathias Sem's fond (2018), Aldo Daccò Award (2006), and Håkon Styri Fellowship (2004). She leads interdisciplinary projects like NTNU-SINTEF SolarNet, advancing solar energy solutions for high-latitude climates. Her team collaborates globally on topics like silicon crucible coatings, AI-driven defect analysis, and alloy microstructure optimization. Research outputs span 100+ publications across journals like Journal of Crystal Growth , Solar Energy Materials and Solar Cells , and Physica Status Solidi . Current projects address sustainable silicon manufacturing, fused quartz crucible durability, and machine learning for process control in metallurgy.
Manimuthu Periyasamy serves as a Research Fellow at the University of Oslo, specializing in the physics of complex oxide materials with emphasis on magnetic and electronic properties. His work bridges fundamental condensed matter physics and applied materials engineering, focusing on novel phenomena in reduced-dimensional perovskite systems. His academic foundation includes: Ph.D. in Physics-Materials Science from University of Madras, India (2009-2014) Master's degree in Physics from Pondicherry University, India (2003-2005) Bachelor's degree in Physics from Pondicherry University, India (2000-2003) Periyasamy's research centers on defect-structure correlations in strongly correlated electron systems, particularly investigating layered perovskites and Ruddlesden-Popper phases. His experimental expertise spans materials synthesis, thin film fabrication, and comprehensive characterization of magnetic, transport, and dielectric properties using advanced instrumentation including PPMS. Key focus areas include oxygen-deficient phases exhibiting metal-insulator transitions, magneto-dielectric coupling, and tailored magnetic oxides for room-temperature applications. His publication record reveals concentrated expertise in transition metal oxides, with recent work exploring colossal magnetoresistance in Ca4Mn3O10, magneto-dielectric behavior in Lu3Fe5O12, and energy applications of ferrite thin films. The research demonstrates consistent methodological rigor in synthesizing complex oxides and correlating structural defects with emergent electronic phenomena. His recognition includes: Young Scientist Award from Science and Engineering Research Board, DST (India), 2015 Senior Research Fellowship from CSIR, India, 2012 Multiple Best Paper Awards at international conferences (ICAN-2014, MAGMA-2010) University Research Fellowship from UGC, India, 2009 Periyasamy collaborates within Oslo's SMN department and Nafuma center, utilizing specialized laboratories for oxide thin film deposition and magneto-transport measurements. His current work continues to explore structure-property relationships in reduced-dimensional magnetic oxides, with potential applications in spintronics and energy-efficient electronic devices.
Andreas Echtermeyer is a full-time Professor at the Norwegian University of Science and Technology (NTNU) in the Department of Engineering Design and Materials . He previously served as an adjunct professor at NTNU from 2003 to 2008 and worked at Det Norske Veritas (DNV) as a senior principal engineer. He continues as a DNV consultant . Education: PhD in Materials Engineering (MIT), Diploma in Physics (Technical University of Munich) Research Interests: Composites and polymers with emphasis on long-term performance, fatigue, creep, environmental degradation, mechanical and adhesive joints, production methods like resin infusion and filament winding, multiscale modeling, and offshore applications. Projects: Led major initiatives including NICOLHY (2024-2026) on hydrogen tank insulation, Thor (2019-2022) on thermoplastic composite hydrogen vessels, Affordable Composites (2015-2018) on multiscale modeling, and Copatch (2010-2014) on composite-metal repair techniques. Scientific Contributions: Authored over 50 articles and 200 technical reports. Developed DNV offshore composites standards and ISO guidelines for adhesive joint technology. Key focus areas: fatigue analysis, hydrogen infrastructure, fiber-matrix interactions, and real-time inspection using fiber optics.
Per Erik Vullum is an Associate Professor at the Norwegian University of Science and Technology (NTNU), based at Realfagbygget, D4-106, Gløshaugen campus (Høgskoleringen 5). His research spans materials science with emphasis on lithium-ion battery systems, electron microscopy characterization, and welding of dissimilar metals. Contact details: per.vullum@ntnu.no, +4773593486, +4793016522. Primary research interests include: Battery materials (silicon anodes, layered oxide cathodes, solid electrolytes) Intermetallic phase formation in aluminum-copper/steel welds Advanced microscopy techniques (TEM, STEM, in situ characterization) Industrial catalysis for energy and chemical processes Additive manufacturing of high-strength alloys Analysis of his 15 most recent publications reveals dominant focus on battery technology (8 articles, 53%), particularly silicon anode degradation and cathode cracking mechanisms. Secondary themes include dissimilar metal joining (4 articles, 27%) and electron microscopy (2 articles, 13%), with one catalysis study. Collaborative work with SINTEF and industry partners is evident through co-authors on welding and subsea cable projects. Scientific awards: No awards mentioned in the source text Advising and grants: The provided text does not reference any PhD/Master's students, grants, or funding sources. His collaborative publications suggest team-based research but omit specific grant details. Labs and teams: Vullum operates within NTNU's materials research ecosystem, likely connected to electron microscopy facilities given his TEM-focused publications. His SINTEF blog contribution indicates active collaboration with Norway's applied research sector, particularly in subsea cable and battery projects.
Christoph Brüne is an Associate Professor in the Department of Physics at the Norwegian University of Science and Technology (NTNU), working within the Faculty of Natural Sciences. His research focuses on molecular beam epitaxy (MBE) of single-crystalline materials with antiferromagnetic and superconducting properties, combined with low-temperature electronic transport studies to investigate quantum mechanical effects. Develops ultrapure thin films and nanostructures via MBE Investigates quantum transport in low-dimensional systems Specializes in topological insulators and heterostructures Brüne's work enables precise control over material dimensions, interfaces, and strain, allowing creation of heterostructures and superlattices with tailored quantum properties. His research has significant implications for quantum spintronics and novel electronic devices. Recent publications highlight growth and characterization of FeSn thin films, CuFeS2 materials, and HgTe-based topological junctions. These studies explore spin Hall effects, proximity-induced superconductivity, and strain-engineered quantum phenomena. Brüne contributes to educational programs through courses in measurement techniques (TFY4185) and optics (TFY4195), and actively engages in outreach activities including presentations for secondary school students and workshops on quantum materials.
