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Other departments in School of Engineering ›Faculties at The University of Osaka ›

Takayoshi Nakano, Professor
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The Biomaterials Science Lab (Nakano Lab) uses materials science to clarify the properties and functions of biological tissue, with the aim of creating biomaterials and aerospace materials. Learning from the way biological tissue has anisotropic arrangements and structures at each hierarchical level, the lab makes materials using metal 3D printers and computer simulation. To create materials that perform highly even in extreme environments, including living bodies and ultra-high temperatures, the lab aims to establish a new academic discipline called "anisotropic materials science." On the lab's website, it is introduced under the name "Nakano Lab."

Hiroyuki Yasuda, Professor
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The Crystal Plasticity Engineering Lab (Yasuda Lab) aims to develop advanced materials with new structures and functions, using "crystal structure," "material properties," and "plastic deformation" as keywords. The lab evaluates, analyzes, and controls materials from both microscopic and macroscopic perspectives. It works on evaluating and improving the mechanical and functional properties of new materials such as intermetallic compounds, ceramics, and amorphous materials. The lab also aims to establish "multiscale in situ observation," a method for observing in real time, from micro to macro scales, how a material's structure changes while it is deforming.

Yu Shiratsuchi, Professor
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The Surface and Interface Physics Lab (Shiratsuchi Lab) conducts research on "nano-magnetic and spintronic materials," with thin films and magnetism as its keywords. Building on high-quality thin-film fabrication as its core technology, the lab studies new nanomaterials for next-generation electronic devices, such as memory, storage devices, and computing elements. The lab also conducts magnetic measurement experiments using soft X-rays at SPring-8, a large synchrotron radiation facility.

Kohsuke Mori, Professor
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The Catalytic Materials Lab researches the development of nanostructured catalysts, which are essential for the energy resource revolution driven by CO2 utilization technologies and hydrogen utilization technologies. The lab aims to create catalysts precisely designed at the level of atoms and molecules to suit the target reaction. Combining catalyst design, metallic materials science, advanced structural analysis techniques, and theoretical calculations, the lab pursues research without being bound by existing concepts. Its goal is to create ultra-highly active, practical functional catalysts that contribute to energy generation and the solution of environmental problems.

Kazufumi Nomura, Associate Professor
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The Measurement and Inspection Engineering Lab researches methods for measuring and detecting, during processing, internal defects in welds and joints that cannot be seen from the outside. In manufacturing settings, defects can occur unintentionally as a result of various unavoidable disturbances. Internal defects reduce joint performance, so inspection is essential, but when defects are found, rework steps are required and production efficiency drops, which is a problem. The lab expects that if quality assurance can be performed in situ during processing, it could bring innovation in production technology.

Kazunori Sato, Associate Professor
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The Computational Materials Design Lab designs functional materials using first-principles calculations and carries out experimental validation of those designs. The lab develops quantum simulation methods that describe finite-temperature magnetism involving electronic excited states, as well as electrical, thermal, and spin transport phenomena. Using these methods, the lab designs high-efficiency energy conversion materials and energy-saving materials. By applying statistical learning to simulation and experimental results, the lab provides guidelines for materials exploration.

Masato Yoshiya, Professor
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The Quantum Materials Physics Lab develops new materials using computational materials science methods that span scales from atoms to the macroscopic level. The lab aims to link computation with experiment and theory to create new materials design methods that are not bound by existing theories. Its goal is to understand from the fundamentals why materials have their properties, and to generate seeds for new uses of materials. On the lab's website, it is presented under the name "Yoshiya Lab."

Hideki Araki, Professor
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The Araki Lab (Quantum Functional Materials Design) uses positrons, the antimatter counterpart of electrons, to observe the internal structure of materials at the atomic scale. The lab investigates how metallic materials such as aluminum alloys for automobiles and high-strength steels, high-entropy alloys, and alloys made with metal 3D printers come to show excellent properties. By combining experiments using positrons with computer simulation based on first-principles calculations, the lab conducts research aimed at designing new materials.
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