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1,223 labs · 43 student voices
Daisuke Ikeda, Associate Professor
1 student voices
The e-Science Lab studies "e-Science," an approach to science that puts computers at its center. e-Science is an approach to science centered on computing, such as simulation and data analysis, that does not rely heavily on specialized knowledge. The lab aims to make it possible for ordinary people to take part in scientific discovery and verification. In addition to data mining and simulation, the lab also studies the databases and search mechanisms that support them.
Haruki Kiyama, Associate Professor
1 student voices
The Quantum Device Engineering Lab studies the ways electric current flows that are unique to quantum mechanics in tiny semiconductor structures such as quantum dots. The lab fabricates semiconductor quantum devices only nanometers in size by itself, and carries out experiments end to end, up to measuring the flow of current at cryogenic temperatures close to absolute zero. The spin of a single electron in a quantum dot is a promising candidate for a qubit of a quantum computer. Through techniques to manipulate and measure spin and to arrange many quantum dots, the lab aims to realize a semiconductor quantum computer.
Koji Okamura, Professor
1 student voices
The Advanced Network Lab conducts research that solves problems arising in cyberspace by analyzing a wide variety of information. Rather than stopping at theory or simulation, the lab validates its research on a research internet that is independent of the university. For validation and evaluation, the lab also uses KITE (the campus backbone of Kyushu University), wireless LAN networks, firewall log data, and student survey data. Its main research topics include network traffic analysis, zero trust networks, and improving the security of web applications.
Kazunori Koga, Professor
1 student voices
The Plasma Engineering Lab studies the interaction between plasma, which is ionized gas, and materials, with the aim of creating next-generation plasma processes. Plasma is a core technology used widely, from advanced manufacturing such as semiconductor fabrication to the environmental and agricultural fields. In semiconductors, the lab combines plasma diagnostics, materials analysis, and numerical simulation to advance the processes that support the manufacture of advanced devices such as AI chips. The other pillar is plasma agriculture. The lab irradiates seeds with plasma to promote germination and growth, and works to increase harvest yields.
Haruichi Kanaya, Professor
1 student voices
The High-Frequency Integrated Circuits and Microwave Communication Devices Lab designs LSIs, antennas, and filters for wireless communication, and actually fabricates prototype LSI chips to evaluate them. The frequency bands it studies are UHF, microwave, millimeter-wave, and terahertz. Through joint research with Kyushu University's School of Medicine, School of Dentistry, and University Hospital, the lab also works on medical sensors and on supplying power to in-body sensors. The lab's website presents it under the name "Kanaya Lab."
Daisuke Nakamura, Professor
1 student voices
The Laser and Photonics Applications Lab conducts research to find new value in the world using light and lasers. Lasers are a cutting-edge technology that plays a wide range of roles in fields such as communications, processing, measurement, and medicine. Based on laser processing and nano/micro technology, the lab works on everything from light sources for manufacturing semiconductors to metal welding and devices that handle ultraviolet light. As medical-engineering collaboration with the Department of Ophthalmology in the Faculty of Medicine, the lab is also developing techniques to measure fundus function using spectral imaging.
Kaoru Yamamoto, Associate Professor
1 student voices
The Systems Control and Optimization Lab studies how to bring systems, meaning collections of interacting elements, closer to a desired behavior. Anything that changes over time is a target for control, from physical systems such as robots, drones, and automobiles to signal processing of audio and images. A particular focus is control of groups of autonomous mobile robots, such as platooning of self-driving cars and coordinated flight of multiple drones. The other pillar is optimization: the lab develops algorithms that efficiently solve problems of finding the "best" solution, such as path planning.
Yoshihiro Yamazaki, Professor
1 student voices
The Energy Materials Engineering Lab aims to improve both the efficiency of producing energy and the efficiency of using it by exploring innovative functions of inorganic materials. The key is the behavior of point defects formed inside materials and the chemical reactions that occur on solid surfaces through them. The lab carries out everything in-house, from sample preparation to the measurement of properties and reactions, and combines this with first-principles calculations, machine learning, and electrochemical measurements. The materials it works with are centered on perovskite-type oxides, including proton-conducting electrolytes, fuel cell electrodes, and photocatalysts.
Chihaya Adachi, Senior Professor
1 student voices
The Organic Photonics and Electronics Lab has led the world in pioneering the science and technology of organic EL (OLED), in which an electric current is passed through a thin film of organic compound about 0.1 micron thick to make it emit light. The lab has discovered the world's first electron-transport material, created thermally activated delayed fluorescence (TADF) molecules, which are regarded as third-generation OLED emitters, and developed organic semiconductor lasers. Recently, it has also taken on new research, such as thermoelectric devices using organic CT interfaces and molecules that combine two-photon absorption with TADF. Built on five foundational technologies (quantum chemical calculation, organic synthetic chemistry, device structure design, process control, and analysis of the physical properties of optical and electronic devices), the lab aims to integrate basic research in exciton engineering with applied research that produces materials and devices.
Takuma Yasuda, Professor
1 student voices
The Yasuda Lab studies how to create 'π-materials,' new organic materials with optical and electrical functions. The π electrons in a molecule are responsible for properties such as color, light emission, and how easily electric current flows, and a wide variety of functions can emerge depending on how the molecule is designed. A distinctive feature of the lab is that its members work across the whole process, from molecular design and synthesis to analysis of physical properties and evaluation of devices. The lab is part of Kyushu University's Institute for Advanced Study, and for graduate studies it belongs to the Department of Applied Chemistry in the Graduate School of Engineering. In the School of Engineering's list of labs, it appears as 'Advanced Functional Organic Chemistry Lab (Institute for Advanced Study).'
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