| Program / Major | mDP | Goals | Courses |
|---|---|---|---|
| Fundamental Mechanical Engineering | F | 産業界や社会の要請を把握して解決するべき課題を設定し、さまざまな工学分野の知識を関連付けながら設計生産技術を活用することで、立案した構想に従って研究を進め課題を解決することができる。 | Sub |
| Advanced Mechanical Engineering | D | 機械工学の基盤技術に関わる物理現象の本質を数理的に理解することができる。機械を設計・製作・運用するために必要な手法（計測、制御、設計、加工など）に習熟し、それらを実際の工学的問題に適用することができる。 | Main |
| Environment and Materials Engineering | B | 地球環境や地域社会との調和を見据えて、さまざまな工学分野に関わる問題を解決することができる。 | Sub |
| Chemistry and Biotechnology | B | 地球環境や地域社会との調和を見据えて、さまざまな工学分野に関わる問題を解決することができる。 | Sub |
| Advanced Electronic Engineering | E | 専門的デザイン課題について解決する能力を身に付けることができる。 | Sub |
| Information and Communications Engineering | F | 社会のニーズに対して技術課題を主体的に発見し、工学分野における分野横断的な知識も活用しつつ、計画的・継続的に取り組んで課題を達成することができる。 | Sub |
| Computer Science and Engineering | G | 技術的課題に対してさまざまな工学分野の知識を関連付けながら主体的に取り組み、継続的に学修する能力を身に付けることができる。 | Sub |
| Urban Infrastructure and Environment | G | ⼟⽊⼯学における現実の問題について、⼯学・専⾨基礎知識を⽤いて理解・解決することができる。 | Sub |
Understand the introductory concepts of the three fundamental engineering disciplines comprising mechanical functional engineering,
namely mechanical engineering, electronic engineering, and software engineering. Gain an understanding of the basic structure,
control circuits, and control program of robots. Engage in group work on the theme of robot middleware exercises, fostering
communication within the team.
Robotics is a multidisciplinary field based on mechanical engineering, electrical engineering, and software engineering. Therefore,
to conduct research in the field of robotics, a broad knowledge of these areas is necessary. This course explains topics related
to robotics in each of these fields, allowing students to learn how the technologies in each area are interconnected. Students
will also learn about the actual construction of robots and gain an understanding of the fundamentals of the latest topic,
robot middleware. Through individual assignments and group work, they will deepen their understanding and learn the basics
of robot design methods.
- Understand the introductory concepts of the three fundamental engineering disciplines comprising mechanical functional engineering:
mechanical engineering, electronic engineering, and software engineering.
Understand system development methods and their essential thinking methods. - Understand the basic structure of robots, control circuits, and control programs.
- Work collaboratively in teams, engaging in communication, and conducting practical tasks based on the theme of robot middleware exercises.
| Report 1 | Report 2 | Group work report | Total. | |
|---|---|---|---|---|
| 1. | 30% | 30% | ||
| 2. | 30% | 30% | ||
| 3. | 40% | 40% | ||
| Total. | 30% | 30% | 40% | - |
The assessment will be as follows: Report 1 on the fundamentals of mechanical engineering, electrical engineering, and software
engineering will account for 30%, Report 2 on the basic structure of robots will account for 30%, and the group work report
will account for 40% of the final grade. A passing grade requires a score of 60 or higher.
Attaining a score of 60 means demonstrating an understanding of the fundamentals of mechanical engineering, electrical engineering, and software engineering, as well as being able to comprehend and explain the basic structure of robots and demonstrate a grasp of the basics of robot middleware, enabling the execution of fundamental tasks.
Attaining a score of 60 means demonstrating an understanding of the fundamentals of mechanical engineering, electrical engineering, and software engineering, as well as being able to comprehend and explain the basic structure of robots and demonstrate a grasp of the basics of robot middleware, enabling the execution of fundamental tasks.
| Class schedule | HW assignments (Including preparation and review of the class.) | Amount of Time Required | |
|---|---|---|---|
| 1. | What is a mechanical function? ・ Lecture method (lecture method, evaluation method) ・ Boxer robot: Basic characterization, function expansion competition ・ Documentation ・ Transmission ・ Transmission of boxer robot Transmission of gearbox |
Group Meeting | 60minutes |
| Build up the gearbox | 60minutes | ||
| 2. | Three basic engineerings that make up mechanical functional engineering ・ Explanation of boxer robot function expansion competition ・ Production of boxer robot 2: Assembly of main body 1 |
Build up controller and robot legs | 60minutes |
| Completion of system proposal document | 120minutes | ||
| 3. | Mechanical engineering ・ Robot center of gravity, link mechanism, walking characteristics ・ Machine elements: screws, nuts, washers, shafts (, lubrication) ・ Production of boxer robot 3: Assembly of main body 2 |
Completion of robot assembling | 120minutes |
| Review of machine elements | 60minutes | ||
| Completion of system basic design document | 120minutes | ||
| 4. | Boxer robot basic characterization ■ Time measurement of straight course ■ Square course lap time measurement ■ Measurement of work rate by pulling weight ■ Climbing time measurement ■ Slalom course time measurement |
Make a basic characterization report | 160minutes |
| 5. | Electronics ・ Function expansion work for boxer robots 1 |
Survey on various sensors | 60minutes |
| Completion of system development plan document | 120minutes | ||
| 6. | Software engineering ・ Function expansion work for boxer robots 2 |
Survey on the programming | 60minutes |
| 7. | Boxer robot function expansion competition | Make an evaluation document | 180minutes |
| Completion of system evaluation report | 120minutes | ||
| 8. | Robot software engineering 1 How to use embedded processors |
Review the development environment and usage procedures for embedded processors. | 190minutes |
| 9. | Robotics Software Engineering 2: Interrupts and Real-time Processing |
Reviewing Interrupts and Real-time Processing. | 190minutes |
| 10. | Example of Robot Configurations 1: Example of a Wheeled Mobile Robot Example of a Manipulator |
Reviewing the degrees of freedom and design of mobile robots and manipulators. | 190minutes |
| 11. | Example of Robot Configurations 2: Example of a Quadruped Robot Example of a Bipedal Walking Robot |
Reviewing control methods for structures with multiple degrees of freedom. | 190minutes |
| 12. | Robot Control 1: Kinematics and Inverse Kinematics Dynamics and Inverse Dynamics Optimal Control and Robust Control |
Review of Kinematics and Dynamics. | 190minutes |
| 13. | Robot Control 2: Middleware Networks |
Reviewing Robot Middleware. | 190minutes |
| 14. | Group Work: Final Presentation | Create and submit a report on the results of the group work exercise. | 190minutes |
| Total. | - | - | 2630minutes |
| ways of feedback | specific contents about "Other" |
|---|---|
| Feedback in/outside the class. |
- Questions will be accepted after the lecture.
- Course that cultivates an ability for utilizing knowledge
- Course that cultivates a basic interpersonal skills
- Course that cultivates a basic problem-solving skills
| Work experience | Work experience and relevance to the course content if applicable |
|---|---|
| N/A | Not applicable |
- 4.QUALITY EDUCATION
- 9.INDUSTRY, INNOVATION AND INFRASTRUCTURE
- 12.RESPONSIBLE CONSUMPTION & PRODUCTION
Last modified : Sat Mar 14 14:50:24 JST 2026