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194 labs · 0 student voices
Faculties at The University of Osaka ›
Kenjiro Fukuda, Professor
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The Organic Flexible Systems Lab (Fukuda Lab) studies how to build new systems from devices that exploit flexibility, using a range of materials centered on organic materials. The electronic devices that support today's society are made of hard inorganic materials such as silicon. Organic materials such as plastics and biological materials, on the other hand, are highly flexible and make it possible to build flexible, soft systems that inorganic electronics cannot achieve. The lab aims to develop technologies that can be implemented in systems where flexibility is desired, such as wearable electronics and soft robots.
Yasuhiro Kuramitsu, Professor
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The Extreme Plasma Engineering Lab (Kuramitsu Lab) conducts plasma science research using high-power lasers. By recreating on a small scale in the laboratory the ultra-high-temperature, high-pressure conditions found in places such as the center of the Sun, and the high-energy-density conditions found in distant space, the lab seeks to approach the mysteries of the universe. The lab focuses on elucidating how high-energy particles in space are born, realizing a sustainable energy society through fusion power generation, and pioneering medical, sensing, and security technologies that use high-energy quantum beams. Students also take part in research projects as researchers in their own right, and join experiments at large laser facilities in Japan and abroad.
Mihoko Maruyama, Professor
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The Functional Biomaterials Creation Lab studies how crystals that form inside the body (biominerals), such as bone, teeth, and urinary stones, are formed and how they change. From the perspectives of both crystal engineering and electrical and electronic engineering, the lab makes the behavior of crystals in the body visible using measurement techniques such as optical interferometry. It is also developing new crystallization techniques using laser light, taking on the challenge of controlling the crystal formation process as desired. On the lab's website, it is introduced under the name "Maruyama Lab."
Nobuya Mori, Professor
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The Computational Quantum Information Electronics Lab (Mori Lab) conducts theoretical research based on computational physics, aiming to realize devices and integrated systems that use new materials, new structures, and new principles. Its research spans a wide range of levels, from elucidating the physical phenomena that appear at the atomic level in quantum devices to improving the performance of integrated systems. In addition to modeling and simulation of atomic-layer materials and power devices, the lab works on heat control and on integrated circuit technology that operates at low voltage.
Ryuji Katayama, Professor
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The Quantum Photonics Lab researches quantum photonic devices, aiming to realize quantum computers and ultra-compact, energy-saving lasers in previously unexplored wavelength ranges. Its work includes integrating semiconductor lasers with nonlinear optical elements, developing quantum light sources that use quantum structures in wide-bandgap semiconductors, and searching for materials with giant optical nonlinearity. The lab also develops a technique for evaluating crystal quality that uses a process called multiphoton excitation, and combines these efforts to pioneer new devices and systems. The lab's website says that anyone who would like an explanation of the lab or a tour should contact the staff.
Tetsuya Hirose, Professor
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The Integrated Information Design Lab works on the design of semiconductor integrated circuits, especially on pioneering integrated circuit technology that operates on ultra-low power. It is taking on the challenge of CMOS integrated circuit technology that operates at extremely low voltages of 50 mV or below, which was difficult with conventional circuit design techniques. The lab also aims to pioneer ultra-low-power, high-precision, highly functional edge node technology with which IoT devices acquire biosignals and information on the physical environment. The lab's website introduces it under the name "Hirose Lab."
Norimasa Ozaki, Professor
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The High-Density Matter Reaction Design Lab studies how to create and investigate high-density matter using quantum beams such as high-power lasers and X-ray free-electron lasers. Its targets are unexplored high-density states of matter, such as those found deep inside stars and planets. The lab aims to understand reactions under extreme environments and extreme conditions, and to design the pathways leading to desired states of matter as well as the applications that arise from them. At the Institute of Laser Engineering, Professor Norimasa Ozaki is listed in the plasma photonics research group, which is described as "elucidating and exploring the high-energy-density nature of matter by mastering diverse quantum beams."
Shunsuke Saruwatari, Professor
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The Saruwatari Lab (Cyber-Physical Networking Division) explores the merging of the physical world and cyberspace through advanced networking technologies. By integrating sensing, communication, and AI, the lab creates foundational technologies that support a smarter, more highly connected future society. Its goal is to realize networks that do more than send data: networks that grasp the environment, understand human behavior, and connect people, objects, and spaces naturally.
Atsuko Miyaji, Distinguished Professor
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The Cyber Security Engineering Lab studies information security technologies centered on cryptography, as well as technologies that protect privacy. Beyond producing theoretical results, the lab also conducts joint research with companies aiming at practical use. In training researchers, the lab works to develop broad knowledge of security, problem-solving ability, and presentation skills. On the lab's website, it is introduced under the name "Miyaji Lab."
Tadahiko Murata, Professor
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The Data Generation Engineering Lab (Murata Lab) develops real-scale social simulation technology, which models a virtual version of real society that includes human elements. Within a digital twin of real society built in cyberspace, the lab simulates people's decision-making, such as their movement and purchasing behavior. The lab's website says it works on developing the component technologies needed to realize real-world-scale simulations safely. The lab advances research on data generation in the fields of social simulation and drug discovery.
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