Subjects for Master Course
| Subjects | Teachers | Credits |
| Project Study | N. Ueno, et al. | 2 |
| Introduction to Medicine | E. Takahashi | 2 |
| Biomedical Sensing Systems | K. Teramoto | 2 |
| Biomedical Signal Processing | T. Sugi | 2 |
| Applied Inorganic Chemistry | T. Watari, M. Yada | 2 |
| Applied Organic Chemistry | T. Yamato, M. Takeshita, H. Kawakita | 2 |
| Advanced Mathematics of Technology Fusion | S. Maeda, Y. Nakagawa, T. Okada | 2 |
| Advanced Physics of Technology Fusion | H. Maki | 2 |
| Advanced Mechanical Engineering of Technology Fusion | T. Setoguchi, K. Izumi, H. Hasegawa, K. Ishida | 2 |
| Advanced Electrical and Electronic Engineering of Technology Fusion | Q. Guo, M. Kasu, S. Ihara, Y. Otsu, S. Fukai | 2 |
| Advanced Chemistry of Technology Fusion | S. Osada, H. Kodama | 2 |
| Advanced Civil Engineering of Technology Fusion | A. Sakai, H. Yamanishi, M. Kiyota, S. Kojima | 2 |
| Advanced Information Science of Technology Fusion | K. Nakayama | 2 |
| Special Lecture of Advanced Technology Fusion I | N. Ueno, et al. | 2 |
| Special Lecture of Advanced Technology Fusion II | N. Ueno, et al. | 2 |
| Seminar of Advanced Technology Fusion | T. Watari, M. Yada, T. Yamato, M. Takeshita, H. Kawakita | 2 |
| Internship of Advanced Technology Fusion | N. Ueno, et al. | 1 |
| Research and Workshop of Advanced Technology Fusion I | N. Ueno, et al. | 2 |
| Research and Workshop of Advanced Technology Fusion II | N. Ueno, et al. | 2 |
| Research and Workshop of Advanced Technology Fusion III | N. Ueno, et al. | 2 |
| Human body kinematics | 2 | |
| Welfare and Rehabilitation | 2 | |
| Biomedical mechanics of materials | S. Hagihara | 2 |
| Biomedical robotics | N. Ueno | 2 |
| Biomedical Control Theory | K. Satou | 2 |
| Biomedical Dynamics | I. Khan | 2 |
| Biomedical Fluid Engineering | S. Matsuo | 2 |
| Biomedical Applied Fluid Mechanics | T. Hashimoto | 2 |
| Biomedical Computational Fluid Dynamics | T. Sumi | 2 |
| Biomedical Tribology | B. Zhang | 2 |
| Biomedical Heat Transfer | A. Miyara | 2 |
| Biomedical Statistics | S. Goto | 2 |
| Biomedical Numerical Analysis | K. Muramatsu | 2 |
| Biomedical Electromagnetism | K. Muramatsu | 2 |
| Biomedical System Control Engineering | E. Takahashi | 2 |
| Biomedical Measurement | A. Kimoto | 2 |
| Neuro-Biological Information Processing | T. Sugi | 2 |
| Biomedical Image Processing | H. Douzono | 2 |
| Biomedical Photonics | Y. Yamaoka | 2 |
| Applied Inorganic Material Engineering | T. Watari | 2 |
| Applied Organic Material Engineering | T. Yamato | 2 |
| Applied Materials Science | M. Yada | 2 |
| Applied Organic Material Chemistry | M. Takeshita | 2 |
| Applied Functional Molecular Properties | H. Kawakita | 2 |
| Applied Biochemistry | H. Kodama | 2 |
| Applied Organic Synthesis in Green Chemistry | T. Kitamura | 2 |
| Applied Sparation Chemistry and Engineering | K. Oowatari | 2 |
| Applied Composite Material Chemistry | M. Era | 2 |
| Applied Chemical Analysis | T. Takamuku | 2 |
| Applied Function and processing of Electroceramics | K. Nonaka | 2 |
| Advanced English for Academic Study | 2 | |
| Advanced Ethics for Professionals | Y. Iwao, K. Fukunaga | 2 |
| Advanced Study of Business Management | 2 | |
| Advanced Theory on Numerical Analysis | Y. Iso, N. Nishimura, H. Fujiwara | 4 |
| Advanced Study of Liaison,Intellectual Property and Technology Transfer | S. Satou | 2 |
| Advanced Study of Information Security | T. Uehara | 2 |
| Advanced Lecture on Education for Human Right | 2 | |
| English Academic Presentation | Coleman South | 2 |
Outline of Subjects (Doctor Course)
| Advanced Biomedical Robotics | Prof. N. Ueno |
| Medical robots, rehabilitation robots, and human assist robots are mainly explained in this lecture. The fundamental of robotics is also lectured. | |
| Advanced Biological System Engineering | Prof. S. Goto |
| From the viewpoint of system control engineering, human is interpreted as a system. In this class, biological signal processing for identification of human state and robotics for extension of human functions are lectured. | |
| Advanced Biomedical Electronic Engineering | Prof. E. Takahashi |
| We will study mathematical and engineering approaches for analysis, simulation, and estimation of physiological regulatory systems in living organisms. | |
| Advanced Medical and Biological Engineering | Assoc. Prof. T. Sugi |
| Recent medical devices and diagnosis system, especially for neurological activity and movement, are introduced. | |
| Advanced Biomedical Fluid Engineering | Prof. S. Matsuo |
| 1) Fundamental fluid dynamics. 2) Shock wave phenomena. 3) Effective utilization of fluid energy. 4) Application to Biomedical Fluid Engineering. |
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| Advanced Medical Device Engineering | Assoc. Prof. T. Hashimoto |
| Advanced Biomedical Computational Fluid Dynamics | Assoc. Prof. T. Sumi |
| Advanced Biomedical Electromagnetic Field Analysis | Prof. K. Muramatsu |
| Theory and recent topics on electromagnetic field analysis using finite element method is lectured. Its applications for electromagnetic devise or sensor are also introduced. | |
| Advanced Biomedical Sensing | Prof. K. Teramoto |
| Introduction to the Medical Imaging I: Inverse problems II: CT III: Ultrasonic Imaging IV: MRI V: PET |
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| Advanced Biomedical Dynamics | Assoc. Prof. I. Khan |
| The course is designed to understand the biomedical engineering dynamics. It combines the use of matrices in generating the kinematic coefficients associated with the formulation of the governing equation of motion. The contents are included an extensive review of kinematics of rigid body, treelike structures with open and closed loops and prescribed motions including flexibility effects. The study plan of the course is to bridge the gap between dynamics and biomedical engineering application in robotics and bio-systems. | |
| Advanced Biomedical Control Theory | Prof. K. Satou |
| Advanced Medical Image Processing | Assoc. Prof. H. Dozono |
| Advanced Intelligent Instrumentation | Assoc. Prof. A. Kimoto |
| Various intelligent sensors and sensing techniques are lectured. | |
| Advanced Biomedical Optics | Assoc. Prof. Y. Yamaoka |
| Advanced Solid Material Science | Prof. T. Watari |
| Advanced and commercialized ceramic (solid materials) devices are explained by focusing basic theory, mechanism, device structure, etc. 1) Dielectric Device (Condenser) 2) Semiconductor (Sensor) 3) Ptocatalyst (TiO2) 4) Piezoelectrics (Ignition devise, Buzzer) 5) Magnets (Brush-less motor, thermal switch) 6) Ptotonics (Optical fiber, Phosphors) |
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| Advanced Materials for Energy Storage | |
| Recent topics on energy storage materials in various batteries. | |
| Fractology of Advanced Composite Material | Prof. T. Akatsu |
| Advanced Composite Material | Assoc. Prof. M. Yada |
| Topic on design and development of organic / inorganic and ceramics / metal composite materials. | |
| Molecular Design of Advanced Materials | Prof. T. Yamato |
| Advanced Physical Organic Chemistry | Assoc. Prof. M. Takeshita |
| Topic on organic photochemistry and basic | |
| Advanced Adsorptive Material Preparation | Assoc. Prof. H. Kawakita |
| This lecture deals with the preparation method of polymeric adsorptive material to evaluate the adsorption of metalsand biomacro molecules. | |
| Advanced Material Technology | Guest Assoc. Prof. N. Terasaki |
| Advanced Nono Technology | Guest Prof. N. Matsuda |
| Advanced Technology of Chemistry | Guest Prof. K. Yamashitai |
| Advanced Technology of Heat-Resistant Materials | Guest Prof. T. Tabaru |
| Environment-Friendly Materials Design | Guest Prof. K. Nonala |
| Structural Aspect of Composite Material | Guest Assoc. Prof. Yamada |
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