Engineering Science and Mechanics

About Engineering Science and Mechanics

The aim of this course’s curriculum and research activities is the conception and creation of new functions that are in harmony with people and the environment. Research with a basis in mechanical engineering spans five fields—energy and the environment, materials sciences, mechanical controls, manufacturing and processing processes, and applied micro- and nano-technologies— also incorporating various branches of the fields of engineering, science, and medicine.

Research Domain

micro- and nano-technologies, next-generation robots, reusable energy, intelligent machines, function design, space, vibration analysis, controls, natural energy sources, heat pumps, tribology, advanced safety vehicles, human-machine interfaces, functional materials, micromachines, molecular robots


Hydrogen storage for future hydrogen society

Akito Takasaki

Hydrogen is now stored as gas phase in high pressure cylinders, whose volumetric and gravimetric capacities are quite low. Alternative method to store hydrogen is to store it as liquid form, but it requires low temperatures. Recently, hydrogen storage in solid materials has attracted a great attention because of high volumetric capacity and safety. After discovery of an Al-based quasicrystal alloys in 1984, we have been working for hydrogen storage in Ti-based quasicrystals to investigate the total hydrogen performance, because of their unique structures. On the other hand, magnesium hydride (MgH2) is one of the most promising candidates for hydrogen storage materials, due to its high hydrogen storage capacity with a theoretical value of 7.6 wt.%. However, the practical use of MgH2 for hydrogen storage is limited, due to its high thermodynamic stability and slow hydrogen kinetics. In our laboratory, we also work for MgH2 to improve its total hydrogen performance after doping some catalysts. Instead of these hydrogen storage materials, we also work for electrochemical hydrogenation for some alloys, production of shape memory alloys, oxygen storage materials and thin metallic films, and novel industrial application of biomass.

Engineering Science and Mechanics 01Proposed structural model for Ti-based quasicrystal, belongs to a two-shell Bergman cluster, which is different from normal crystal structures.
Engineering Science and Mechanics 02High-resolution transmission electron micrograph of a quasicrystal
Nobuto Matsuhira

Through the research and development of a robot as an intelligent mechanical system, we will create the new concept of the robot and its realization, and we will develop technologies contribute to the society by improving the mechanical system around us more intelligent using robot technologies.
It is very important how to design the concept of the robot system, and we should think the system as a human centric robotics because robots are always support human beings.
Although the market of the robot now is not so big, we expect the robot will be inevitable in the society with decreasing birth rate and increasing elderly. We will research the robot with an objective of the system clearly.
Engineering Science and Mechanics 03


Lab. Head of Lab. Keyword
Materials Science and Engineering Lab. Akito Takasaki / Susumu Uematsu / Alicja Klimkowicz Detail Hydrogen, Oygen, Powder metallurgy, Thin film, Biomass
Combustion Engineering Lab. Hiroyasu Saito Detail Combustion engineering, Thermal engineering
Manufacturing Processing Laboratory Koshiro Aoki Detail Severe plastic deformation process, High strengthen process, Ultra-fine grained material, Shear deformation process, Micro parts forming, Cutting resistance decrement, Metallographic investigation, Toughness modification, Formability improvement, Fatigue limit improvement
Energy and Environmental Engineering Lab. Kotaro Tanaka Detail solar thermal energy utilization, chemical energy storage, thermoelectric converter
Mechanical Dynamics Lab. Naoki Hosoya Detail Vibration engineering, Acoustic engineering, Modal testing, Laser-induced plasma, Damage detection
Nano-Micro Advanced Science & Technology Lab. Naoki Ono Detail Heat transfer engineering, Fluid mechanics
Intelligent Mechanical Systems Laboratory Nobuto Matsuhira Detail Robotics, Mechatronics, Robot system
Smart Materials Laboratory Shingo Maeda Detail Chemical Robotics, Soft Robotics, Polymer Gel, Gel Actuator, Self-motion in chemical system
Intelligence Information Processing Laboratory Shingo Nakamura Detail Artificial intelligence, Robot, Image processing
Material strength Lab. Shinji Hashimura Detail Material strength, Fracture mechanics
Biomechanics Lab. Sota Yamamoto Detail Biomechanics
Micro Robotics Lab. Sumito Nagasawa Detail Micro machine engineering, Mechatronics, Biomimetics
Human Machine System Lab. Toshiya Hirose Detail Vehicle, Active Safety, Driver, Driving Simulator, Vehicle Regulation
Applied Ethics Laboratory Yasushi Koide Detail Science and Technology Ethics, Bioethics, Philosophy, Ethics
Speech Communication Laboratory Yuko Yamashita Detail Voice, Language acquisition, English analysis
Computational Material Science Laboratory Yusuke Tomita Detail Super computer, Algorithm, Simulation, Magnetic material, Mathematical science, Dielectric
Specially appointed professor : Susumu Uematsu (Surface processing, Material mechanics, Materials science)

Objectives in Education and Research

The vision of the Department of Engineering Science and Mechanics is to develop professionals with advanced skills by capitalizing on engineering/technology know-how and academic intellect to realize innovations that serve a noble function. The Department prepares students to be able to comprehend the current state of science and technology from a global perspective, and then to envisage the next generation of technologies to build a harmonious relationship between mechanical engineering and humanity, which encompasses the interpersonal environment and associated emotional influences.

  1. An engineer with ethical responsibilities and concerns, able to constantly evaluate mechanical engineering requirements from a global rather than a human-centered perspective.
  2. A proactive engineer who understands phenomena and events, able to analyze and act appropriately.
  3. An interdisciplinary approach to understand mankind and mechanics incorporating technology and resource/environment/culture/society/economy from an engineering perspective, ultimately transforming those concepts into an innovative design.


Many of our graduates are employed in a diverse range of industries including automobiles, heavy electric, home appliances, railways, and precision equipment. Graduate professionals from the Department of Engineering Science and Mechanics are working at the forefront and are often stated as being both competent and dependable. The reason behind the success is the vision of the department, which is to nurture students with an “Interaction skills with manufacturing products” and the “vitality to take action” in order to become professional engineers and researchers, extensively dedicated towards the realization of a sustainable society.