EEIS 東京大学大学院 工学系研究科 電気系工学専攻

Faculty Members / Research Areas

5 staffs/81 staffs

Professor

KOHNO Takashi

Professor

Neuromimetic Systems: mimicing the nervous system to achieve robust and intelligent information processing systems

We study silicon neuronal networks as a foundation for the next-generation brain-compatible AI. Our approach is multidisciplinary over phenomenological, constructive, and theoretical fields. Anyone interested in the electronic circuit design and nervous system modeling are welcome.

Complex Systems & Bioelectronics
Life/Health/Medical informatics
Electron device/Electronic equipment

KOBAYASHI Tetsuya

Professor

Mathematics and Informatics for Understanding Living Systems

We aim to uncover the design principles of information processing and robustness in biological systems by integrating theoretical and informatics approaches to various biological quantitative data.

Complex Systems & Bioelectronics
Mathematical informatics
Soft computing
Life/Health/Medical informatics
System genome science
Biophysics

SEKINO Masaki

Professor

Electronics for imaging and stimulation of brain and living bodies

Our researches focus on biomedical devices and artificial intelligence covering highly sensitive sensor for detecting magnetic fields arising from neurons, stimulation of neurons using pulsed magnetic fields, and magnetic sensor for diagnosis of tumor metastasis.

Complex Systems & Bioelectronics
Biomedical engineering/Biomaterial science and engineering
Medical system
Brain biometrics
Electron device/Electronic equipment
Medical Physics and Radiological Technology

TABATA Hitoshi

Professor

Brain-mimicking Beyond AI devices using spin waves and fluctuations and quantum technology for information processing and medical engineering applications

Research on brain-mimetic devices utilizing spin fluctuation, focusing on the spinciple that signal processing in neurons is equivalent to the Hamiltonian of a physical property called spin glass. Also, research is being conducted on applying spin wave quantum interference, resonance tunneling phenomena, and stochastic resonance principles, which can be operated at room temperature, to information processing devices to achieve low power consumption, and on ultra-sensitive measurement of bio-related information such as magnetoencephalography, magnetocardiography, and body gases.

Complex Systems & Bioelectronics
Life/Health/Medical informatics
Medical system
Nanobioscience
Thin film/Surface and interfacial physical properties
General applied physics
Electronic materials/Electric materials