Course Name | Chinese | 现代电机设计理论和方法 | |||||||||||
English | Design Theory and Method of Modern Electrical Machines | ||||||||||||
Course Number | Type of Degree | Ph. D | Master | √ | |||||||||
Total Credit Hours | 36 | In Class Credit Hours | 36 | Credit | 2 | Practice | 0 | Computer-using Hours | 0 | ||||
Course Type | □Public Fundamental □Major Fundamental □Major Compulsory √Major Elective | ||||||||||||
School (Department) | School of Electrical Engineering | Term | Autumn | ||||||||||
Examination | A.□Paper（□Open-book □Closed-book） B.□Oral C.□Paper-oral Combination D.√ Others Combination of assignments and final project | ||||||||||||
Chief Lecturer | Name | Yunkai Huang | Professional Title | A. Prof. | |||||||||
huangyk@seu.edu.cn | Website | ||||||||||||
Teaching Language used in Course | Chinese | Teaching Material Website | |||||||||||
Applicable Range of Discipline | Second-Class: Electrical Machines and Drives | Name of First-Class Discipline | Electrical Engineering | ||||||||||
Number of Experiment | Preliminary Courses | Electrical Machines | |||||||||||
Teaching Books | Textbook Title | Author | Publisher | Year of Publication | Edition Number | ||||||||
Main Textbook | Design of Electrical Machines | Shikun Chen | China Machine Press | Jul, 1997 | 2 | ||||||||
Main Reference Books | Introduction to AC Machine Design | Thomas A. Lipo | University of Wisconsin | Dec, 2011 | 3 | ||||||||
SPEED’s Electric Machines | TJE Miller | SPEED | Apr, 2011 | ||||||||||
Technology of Permanent Brushless DC Motor | Jiancheng Tan | China Machine Press | Mar, 2011 | ||||||||||
I.Course Introduction (including teaching goals and requirements) within 300 words:
“Design Theory and Method of Modern Electrical Machine” is a major elective course for the master of Electrical Machines and Drives, focuses on the basic theory and method of modern electrical machines. Along with the development of materials, power electronics devices and control theory, motor, this traditional electrical engineering field, also burst out of a lot of new technology trends, such as the occurrence of permanent magnet motor can obtain high power density, evolve abundant topology forms; Power electronics technology makes the modern motor and control system more and more tight, motor performance is closely related to the controller. These demand the motor can be designed more accurate, and put forward new requirements about the magnetic circuit calculation, parameter calculation, loss calculation and performance calculation. This course combines modern motor application requirements, tell about the basic theory of electrical machine design and the commonly used methods in recent years, and it is mainly about magnetic circuit calculation, parameter calculation, winding design, loss and temperature rise, etc.
II.Teaching Syllabus (including the content of chapters and sections. A sheet can be attached):
Chapter 1: The Size Determination of Electrical Machines
Chapter 2: Magnetic Materials
Chapter 3: The Topological Structure of Modern Electrical Machines
Chapter 4: Magnetic Circuit Calculation, Traditional Method
Chapter 5: Magnetic Circuit Calculation, Equivalent Magnetic Circuit Network Method
Chapter 6: Pole and Slot Matching& Winding Design
Chapter 7: Resistance and Reluctance
Chapter 8: Loss and Efficiency
Chapter 9: Temperature Rise and Heat Dissipation
Chapter 10: The Key Problems of Permanent Electrical Machines Design
Chapter 11: Optimal Design Techniques
III.Teaching Schedule:
Week | Course Content | Teaching Method |
1 | The Size Determination of Electrical Machines | |
2 | The Size Determination of Electrical Machines | |
3 | Magnetic Materials | |
4 | The Topological Structure of Modern Electrical Machines | |
5 | Magnetic Circuit Calculation, Traditional Method | |
6 | Magnetic Circuit Calculation, Traditional Method | |
7 | Magnetic Circuit Calculation, Equivalent Magnetic Circuit Network Method | |
8 | Pole and Slot Matching& Winding Design | |
9 | Pole and Slot Matching& Winding Design | |
10 | Resistance and Reluctance | |
11 | Resistance and Reluctance | |
12 | Loss and Efficiency | |
13 | Temperature Rise and Heat Dissipation | |
14 | Temperature Rise and Heat Dissipation | |
15 | The Key Problems of Permanent Electrical Machines Design | |
16 | The Key Problems of Permanent Electrical Machines Design | |
17 | The Key Problems of Permanent Electrical Machines Design | |
18 | Optimal Design Techniques |
