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Rick VerberneView profile

Research Fellow

• Geochronology
• Mineralogy
• Trace Element Geochemistry
• +3 more

Rick Verberne is a Research Fellow at the Centre for Star and Planet Formation within the Globe Institute at the University of Copenhagen. His research focuses on advanced geochemical and mineralogical analyses using atom probe tomography to investigate trace element behavior in geological materials. His primary research interests include U-Pb geochronology, trace element mobility in minerals, dislocation structure analysis, and nanoscale mineral characterization. Verberne examines how crystal defects in rutile, monazite, and xenotime influence geothermometry and isotopic dating reliability, with direct applications to metamorphic and igneous petrology. Analysis of Verberne's 2021-2024 publications reveals a cohesive research trajectory centered on atom probe tomography methodology development and its geological applications. His work demonstrates how dislocation networks act as dual-function pathways (facilitating diffusion while trapping trace elements), significantly advancing understanding of U-Pb systematics and Zr-in-rutile thermometry in complex mineral systems. He operates within the Centre for Star and Planet Formation, leveraging specialized facilities for high-resolution mineral analysis and collaborating with international researchers including S.M. Reddy, D. Fougerouse, and D.W. Saxey.

Brandon SommerView profile

Lecturer

• International Political Economy
• Structure and Agency
• Ontology
• +4 more

Dr. Brandon Sommer serves as a Lecturer at the Erasmus School of Social and Behavioural Sciences, Department of Economics and Business, Erasmus University Rotterdam. His research focuses on classic debates in international political economy, with particular emphasis on structure and agency, ontology, crisis, and sociopolitical transformation. A distinctive feature of his scholarly work is his methodological innovation in rethinking the qualitative-quantitative divide through an ontological lens. He argues that robust analysis of complex socioeconomic phenomena requires transcending traditional methodological boundaries. His research employs a diverse methodological toolkit including historical and time-based approaches, qualitative interviews, text analyses, and statistical methods. Dr. Sommer's scholarly output demonstrates expertise in Chinese political economy, with particular focus on the Communist Party's role in crisis management and institutional transformation. His work engages with theoretical frameworks including the French Regulation School, International Political Economy, Immanent Causality, and the Morphogenetic Approach. His publications span multiple formats including journal articles, book chapters, and his doctoral dissertation completed at the International Institute of Social Studies. His research trajectory shows consistent engagement with China's socio-economic transformation from the 1960s to the present day, examining the complex interplay between structural forces and agential responses. Recent publications indicate expanding theoretical sophistication with his 2024 work bridging French and Morphogenetic approaches, while maintaining empirical focus on Chinese political economy as evidenced by his 2025 article on military modernization.

Ryo KobayashiView profile

Associate Professor

• Computational Materials Science
• Molecular Dynamics Simulation
• Solid State Ionics
• +4 more

Ryo Kobayashi serves as Associate Professor in the Department of Applied Physics within the Graduate School of Engineering at Nagoya Institute of Technology. His research focuses on computational materials science with emphasis on molecular dynamics simulations for solid-state ionics and battery materials development. His work bridges fundamental atomic-scale phenomena with practical energy storage applications. Doctor of Science from Chiba University (2001) Assistant Professor at Nagoya Institute of Technology (2006-2023) Associate Professor at Nagoya Institute of Technology (2023-present) Kobayashi's research centers on computational materials design, particularly using molecular dynamics to investigate ion transport mechanisms in solid electrolytes, ferroelectric materials, and cementitious systems. His work develops high-throughput methods for force field parameterization and examines nanoscale phenomena in battery materials. Recent studies analyze grain boundary effects in ionic conductors, polarization switching in ferroelectrics, and dehydration processes in construction materials. His publication record shows strong focus on solid-state ionics and computational materials science, with significant contributions to understanding Li/Na-ion transport mechanisms in next-generation battery materials. Recent work combines machine learning potentials with traditional molecular dynamics to accelerate materials discovery. Award for Encouragement of Research in Materials Science (2011) Kobayashi leads multiple competitive research grants including MEXT Innovative Areas projects on local ionic conductivity analysis in solid electrolytes and reaction force field development for electrode interfaces. His teaching includes Solid State Physics II, Quantum Mechanics Seminar, and Applied Physics Experiments. He actively contributes to industry through workshops on materials informatics for corporate researchers and educational outreach to high school students on nanoscale computer simulations. His laboratory maintains active collaborations with national research institutions and develops computational tools like the fitpot program for force field optimization and pmd for molecular dynamics simulations.

OGATA ShujiView profile

Professor

• Nanomaterials
• Composite materials and interfaces
• Structural and functional materials
• +3 more

Professor Shuji Ogata serves in the Department of Physical Engineering, Applied Physics Field at Nagoya Institute of Technology's Graduate School of Engineering. His research spans nanomaterials, composite interfaces, and computational materials science with focus on molecular dynamics simulations of ferroelectric systems and polymer-metal adhesion. His educational background includes a Doctor of Science from The University of Tokyo (1991), preceded by undergraduate studies in Physics at the same institution. Key research interests include: Nanomaterials and composite interfaces Ferroelectric domain dynamics in materials like BaTiO 3 Moisture effects on polymer-metal adhesion Hybrid quantum-classical simulation methods Multiscale modeling from electronic to continuum levels Recent publications (2023-2024) demonstrate consistent focus on molecular dynamics simulations of ferroelectric materials and interfacial phenomena, particularly examining domain wall behavior in barium titanate and protonation mechanisms in epoxy resins under wet conditions. His work integrates machine learning potentials and first-principles calculations to address multiscale challenges. Award highlights include: Editors' Pick in Applied Physics Letters (2024) Featured Article in Journal of Applied Physics (2023) Best Technical Paper at Supercomputing 2001 Excellent Achievement Research Project from RIST (2015) His research program includes significant grants from JSPS, MEXT, and NEDO, particularly the "Super-fast development of super-materials" project (2016-2021) and current MEXT initiatives using the Fugaku supercomputer. He advises multiple doctoral students including Hikaru Azuma and Ryo Kobayashi who frequently co-author his recent publications. His Opto-Biotechnology Research Center affiliation enables cross-disciplinary collaborations in materials simulation.