Courses
Courses
Lab-related courses listed from the Science Tokyo syllabus by course title, course code, instructor(s), and course overview and goals.
Course-title links open a syllabus search for the year at viewing time.
Instructor(s)Kyohei Kiyota / Kenichi Okada
Course CodeEEE.C261
Course overview and goals
I Electrical Engineering students are provided with fundamentals in classical control theory. Control theories are provided in their entirety along with automatic control theory, which is modern control theory.
II Introduction, transfer function, 1st order lag system, 2nd order lag system, block diagram, transient response, vector trajectory, bode plots, stability, steady state characteristics, step response, complicated bode diagram, controller, proportional controller, proportional and integral controller, proportional and derivative controller, PID controller
Instructor(s)Kenichiro Sano / Nozomi Takeuchi / Kyohei Kiyota / Kenichi Kawabe
Course CodeEEE.L341
Course overview and goals
This is a laboratory course covering the following topics: high-voltage equipment, plasma, AC motors and generators, power electronics, electric power system analysis, and magnetically suspended motors, which are based on the electromagnetic theory and electrical circuit theories.
Through experiments and simulations, students deepen their comprehension of subjects and develop the abilities required of electrical engineers. Additionally, through this experiential learning, students will develop practical skills that are essential to become successful engineers and researchers. These include teamwork, leadership, and communication skills; safety training and experience with electrical devices and machines; methods to obtain and process data; and the ability to draw conclusions from findings and write technical reports.
Instructor(s)Makoto Hagiwara / Nozomi Takeuchi / Kenichi Kawabe / Kenichiro Sano / Kyohei Kiyota
Course CodeEEE.L342
Course overview and goals
This is a laboratory course covering the following topics: high-voltage equipment, plasma, AC motors and generators, power electronics, electric power system analysis, and magnetically suspended motors, which are based on the electromagnetic theory and electrical circuit theories.
Through experiments and simulations, students deepen their comprehension of subjects and develop the abilities required of electrical engineers. Additionally, through this experiential learning, students will develop practical skills that are essential to become successful engineers and researchers. These include teamwork, leadership, and communication skills; safety training and experience with electrical devices and machines; methods to obtain and process data; and the ability to draw conclusions from findings and write technical reports.
Instructor(s)Kyohei Kiyota / Yukio Tsutsui
Course CodeEEE.P301
Course overview and goals
In this course, students will understand the basic principles of electric–mechanical energy conversion for all widely applied electric machinery and apparatus such as motors and generators.
The study of electric machinery and apparatus has been a significant electrical subject since the days of Edison and Tesla, and is still significant due to its close relationship with subjects of note in recent years such as the global warming issue and hybrid automobiles.
Instructor(s)Kyohei Kiyota / Yukio Tsutsui
Course CodeEEE.P501
Course overview and goals
At the era of the 21 century, magnetic levitation and suspension have been introduced into some practical applications. There are maglevs such as the JR Yamanashi Maglev, the Linimo train in Nagoya, and the Shanghai Maglev. On the other hand, bearingless motor water pumps for pure water, magnetic bearings for turbo molecular pumps are used in semiconductor processes. In this lecture, we will study about super conductor magnetic levitation, Maglev train systems, magnetic bearings, and bearingless motors.
Instructor(s)Kyohei Kiyota / Tetsuya Suekane / Tomohiro Nozaki / Hideaki Fujita / Makoto Hagiwara / Shinsuke Mori
Course CodeESI.A403
Course overview and goals
There are various types of energy such as heat, chemical, mechanical, electrical and nuclear energy and so on, but we need electrical and mechanical power for our convenient daily life. These power do not exist in environment as a natural resource, we should convert from primary energy resources into these power on demand. Energy conversion devices such as electrical generator, heat engine, heat pump, nuclear power, fuel cell, solar cell, light emitting devices, and battery allow us to supply power on demand as well as to store energy. The conversion efficiency of these devices is governed not only by thermodynamics but also by many technical reasons. Therefore, understandings of the energy conversion devices are of great importance in order to realize a sustainable society from a view point of energy supply. Students in the Energy Course learn the basics of the energy devices including fundamental working mechanism, advantage and disadvantage of technology, and state-of-art- devices through Interdisciplinary Principles of Energy Devices 1 and 2.
This course focuses on energy conversion devices using mechanical motion and heat. Operation principles and features of electrical generator, heat engine, heat pump technology, and nuclear power generation will be explained. Ingenious working mechanisms of these energy conversion devices facilitate students’ understanding on the thermodynamics as well as related technologies.
Instructor(s)Kyohei Kiyota / Tetsuya Suekane / Tomohiro Nozaki / Hideaki Fujita / Makoto Hagiwara / Shinsuke Mori
Course CodeESI.A403
Course overview and goals
There are various types of energy such as heat, chemical, mechanical, electrical and nuclear energy and so on, but we need electrical and mechanical power for our convenient daily life. These power do not exist in environment as a natural resource, we should convert from primary energy resources into these power on demand. Energy conversion devices such as electrical generator, heat engine, heat pump, nuclear power, fuel cell, solar cell, light emitting devices, and battery allow us to supply power on demand as well as to store energy. The conversion efficiency of these devices is governed not only by thermodynamics but also by many technical reasons. Therefore, understandings of the energy conversion devices are of great importance in order to realize a sustainable society from a view point of energy supply. Students in the Energy Course learn the basics of the energy devices including fundamental working mechanism, advantage and disadvantage of technology, and state-of-art- devices through Interdisciplinary Principles of Energy Devices 1 and 2.
This course focuses on energy conversion devices using mechanical motion and heat. Operation principles and features of electrical generator, heat engine, heat pump technology, and nuclear power generation will be explained. Ingenious working mechanisms of these energy conversion devices facilitate students’ understanding on the thermodynamics as well as related technologies.