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22 labs · 0 student voices
Other departments in Faculty of Engineering Science ›Faculties at The University of Osaka ›
Satoshi Fujimoto, Professor
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The Strongly Correlated Systems Theory Lab conducts theoretical research in strongly correlated condensed matter physics. Its aim is to understand the essence of the diverse quantum phenomena that emerge only when electrons, atoms, and molecules come together to form matter. It focuses in particular on new phenomena exhibited by electrons in strongly correlated electron systems, such as superconductivity, magnetism, and topological materials. On the lab's website, it is introduced under the name "Fujimoto Lab."
Akira Sekiyama, Professor
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The Strongly Correlated Systems Spectroscopy Lab investigates the electronic structure of solids using a method called photoemission spectroscopy. The department's page lists synchrotron radiation and strongly correlated electron systems as research keywords. Other keywords include orbital symmetry, the dispersion of bands and quasiparticles, and polarization-dependent X-ray dichroism. The lab also works on developing advanced electron spectroscopy methods.
Koichi Izawa, Professor
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The Strongly Correlated Quantum Physics Lab experimentally studies new quantum states, such as the exotic superconductivity found in a group of materials known as strongly correlated electron systems. In particular, aiming to clarify the mechanism behind exotic superconductivity, the lab investigates both the superconducting state and the normal state in which it arises. The lab does not engage in materials development or sample growth. Its policy is to carry out thoroughly dedicated experiments that other groups cannot easily imitate. On the lab's website, it is presented under the name 'Izawa Lab.'
Hidekazu Mukuda, Associate Professor
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The Mukuda Lab experimentally explores the origin of high-temperature superconductivity and new states of matter in which electron spin, charge, and orbitals are intertwined, from an atomic-scale perspective. Its main method is nuclear magnetic resonance (NMR), which selects specific atoms in a material and probes the state of electrons microscopically through their nuclei. The lab also pursues the possibilities of NMR under combined conditions of ultralow temperature, high magnetic field, and high pressure, opening up new functions in new materials. The lab's goals are for room-temperature superconductivity to be discovered somewhere, and for the world's best thermoelectric material to be developed, based on guidelines found through experiments.
Takashi Yamamoto, Professor
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The Quantum Information and Quantum Optics Lab (Yamamoto Lab) studies quantum information science, an information science based on the properties of quantum mechanics. The lab takes a broad perspective, from fundamentals to applications and from theory to experiment. In its experiments, the lab centers on light and also uses cold atoms and mechanical vibrations in solids, gradually expanding its research into quantum networks and quantum interfaces. The lab belongs to the Condensed Matter Physics and Engineering area of the Department of Materials Engineering Science, Graduate School of Engineering Science, Osaka University.
S Ishiwata, Professor
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The Emergent Quantum Materials Science Lab searches for new materials full of unknown quantum phenomena and studies their properties. Because it is difficult to make a material with a desired function exactly as designed, the lab conducts inductive materials exploration that draws on experience and intuition. The lab does broad work on material synthesis under environments such as ultrahigh pressure and ultrahigh vacuum, and on measurements of properties such as magnetism, electrical conductivity, and thermal transport. Recently it has also made use of first-principles calculations and Bayesian optimization. On the lab's website, it is introduced under the name "Ishiwata Lab."
Masakazu Matsubara, Professor
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The Meta-Photonic Quantum Condensed Matter Lab uses light to investigate the properties of matter and, further, studies how to control the functions of matter with light. Light interacts with electrons and ions in matter and causes reflection, absorption, and emission, so studying these processes yields information about the inside of the matter. The targets are diverse functional materials, including magnetic metamaterials with artificially designed optical responses, multiferroic materials, strongly correlated materials, and topological materials. On the lab's website, it is introduced under the name "Matsubara Lab."
Hirokazu Tada, Professor
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The Tada Lab (Molecular Electronics Group) takes on the challenge of creating new molecular electronics and organic electronics devices that use molecules as their basic building blocks, and of establishing their scientific foundations. The lab seeks graduate students from a wide range of fields regardless of their undergraduate department, including molecular science, physical chemistry, materials science, condensed matter physics, electronic engineering, and nanoscience. For graduate school entrance exams, applicants can take physics or chemistry in the recommendation-based exam, and condensed matter physics, chemistry, biotechnology, and other subjects in the general exam. Lab visits are welcome at any time, and interested students are directed to consult Professor Tada.
Masaaki Ashida, Professor
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The Ashida Lab (Microscale Material Coherence) conducts research aimed at elucidating and controlling the quantum-mechanical properties of materials using light. Light is not only a tool for probing the properties of materials, but can also be used as a tool for controlling their properties and motion. The research falls broadly into three areas: optical control of materials, creation of new optical technologies, and quantum effects explored with light. In the master's program, students first learn basic spectroscopy techniques, regardless of their research topic.
Katsuya Shimizu, Professor
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The Combined Extreme Conditions Physics Lab creates extreme conditions such as high pressure, high magnetic fields, and low temperatures, and measures the properties of materials under them. Quantum phenomena that we rarely notice in everyday life show themselves in the world of extreme conditions, far beyond ordinary intuition. Using ultrahigh-pressure and ultralow-temperature techniques, the lab searches for superconductivity in elements and heavy-fermion materials. On the lab's website, the lab is introduced under the name "Extreme Ultrahigh Pressure."
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