Department of Mechanical Science and Bioengineering
The Department of Mechanical Science and Bioengineering constitutes one department specializing a study of mechanical or dynamical "function" of man-made objects and/or nature including human bodies, along with the other two departments specializing "materials" and "systems." This Department organizes itself to endow students with various programs of education and research on mechanical science and bioengineering, and consists of three divisions: Division of Nonlinear Mechanics, Division of Mechanical Engineering and Division of Bioengineering. The programs at all three divisions emphasize the acquirement of fundamental knowledge and scientific skills with ethics. At the Division of Nonlinear Mechanics, discipline on various mechanics of fluids, solids, etc. is bestowed from a viewpoint of nonlinear mechanics. Environment/energy issues, functions of emerging materials, and mechanical behavior of structures are among the topics. At the Division of Mechanical Engineering, fundamental knowledge of mechanics are applied to developments of novel machines and reliable functions required for near-future space mission, robotics, intelligent material processing and manufacturing. At the Division of Bioengineering, biomechanical and biophysical studies are performed on the analyses of the structure and function of nano- to human-scaled living systems and their applications to biological and medical sciences, clinical medicine, assistive and rehabilitation technology, applied mechanics, photonics, and engineering.
Division of Nonlinear Mechanics
Research and education in the Division of Nonlinear Mechanics aim at establishing new fields of nonlinear mechanics from various mechanical phenomena and problems arising from man-made objects and/or nature, to create novel functions and machines, and at fostering students with such capabilities. Nonlinear mechanics uncover laws and principles underlying apparently complicated phenomena to describe the real world more precisely than the "linear mechanics." Specific examples span over chaos in turbulence, solitons in nonlinear waves, mesoscopic mechanics ranging from micro- to nano-scales, localization of deformation, crack, fracture and so on. The Division consists of four groups specializing thermal engineering and science, fluid mechanics, fracture mechanics and solid mechanics with contributions to energy and environmental problems, new materials, and security against failure of mechanical systems.
|Division of Nonlinear Mechanics||Mechanics of Fluids and Thermo-fluids||Thermal Engineering and Science Group|
|Fluid Mechanics Group|
|Mechanics of Solid Materials||Fracture Mechanics Group|
|Solid Mechanics Group|
Division of Mechanical Engineering
The goal of this area is to help progress "Engineering Science" by focusing on challenges requiring fundamental solutions, such as the highly reliable engine systems which play important roles in space development in the near future, the development of DNA devices for bionano technology, the intelligent information processing necessary for creating new artificial commodities, and the advanced material processing and manufacturing technologies.
|Division of Mechanical Engineering||Propulsion Engineering||Molecular Fluid Dynamics Group|
|Fluids Engineering Research Group|
|Mechano-informatics||Human Motor Control and Human Enhancement Group|
|Manufacturing System Group|
Division of Bioengineering
We are mainly focusing on bioengineering analyses of the structure and function of living systems in nano- to macro-scopic multiple scales and their applications to biological and medical sciences, clinical medicine, applied mechanics, and engineering. Our major research and educational fields are as follows: structural analyses, biophysics, and biomechanics of biological materials and tissues; analyses of the principles and mechanisms of biological functions, and structure-function relationships in bio-machinary units; model analyses of living systems and systemic analyses of human body motion; biomedical and biophysical measurements, biomedical photonics, and medical informatics; developments of biomaterials, artificial organs, and tissue engineering technologies; and developments of optimal design methods and techniques based on biomimetics.
|Division of Bioengineering||Biomechanical Engineering||Biomechanics Group|
|Mechanical and Bioengineering Systems Group|
|Tissue Engineering Group|
|Biophysical Engineering||Biophysics and Data Science Group|
|Biomedical and Biophysical Measurements||Molecular BioMeasurement Group|