Course Name | Chinese | 电力电子系统建模及控制 | |||||||||||
English | Modeling and Control of Power Electronics System | ||||||||||||
Course Number | Type of Degree | Ph. D | Master | √ | |||||||||
Total Credit Hours | 36 | In Class Credit Hours | 36 | Credit | 2 | Practice | Computer-using Hours | ||||||
Course Type | □Public Fundamental □Major Fundamental □Major Compulsory √Major Elective | ||||||||||||
School (Department) | School of Electrical Engineering | Term | Spring | ||||||||||
Examination | A. □Paper（□Open-book □Closed-book） B. □Oral C. □Paper-oral Combination D.√ Others Homework and Presentation | ||||||||||||
Chief Lecturer | Name | Wang Jianhua | Professional Title | Lecturer | |||||||||
Website | |||||||||||||
Teaching Language used in Course | Chinese | Teaching Material Website | |||||||||||
Applicable Range of Discipline | Electrical Engineering | Name of First-Class Discipline | Electrical Engineering | ||||||||||
Number of Experiment | Preliminary Courses | Power Electronics, Automation Control | |||||||||||
Teaching Books | Textbook Title | Author | Publisher | Year of Publication | Edition Number | ||||||||
Main Textbook | Modeling and Control of Power Electronics System | Xu Dehong | China Machine PRESS | 2006/1 | First Edition | ||||||||
Main Reference Books | Fundamentals of Power Electronics | Robert W. Erickson, Dragan Maksimovic | Springer Science & Business Media | 2001 | Second Edition | ||||||||
I.Course Introduction (including teaching goals and requirements) within 300 words:
Introduction of dynamic models of power electronics system, including modeling methods such as state space method, unified circuit model, feedback control design of dc/dc converters, three phase PWM rectifier and inverter dynamic model, PWM modulation theory, instantaneous power theory; converter parallel system dynamic model and current-sharing control, applications of modeling methods of power electronics system in flexible ac/dc transmission and distribution system, distributed generation micro grid system, motor drive and control system.
II.Teaching Syllabus (including the content of chapters and sections. A sheet can be attached):
(1)Modeling methods such as state space method, unified circuit model，
(2)Feedback control design of dc/dc converters,
(3)Three phase PWM rectifier and inverter dynamic model,
(4)PWM modulation theory,
(5)Instantaneous power theory,
(6)Converter parallel system dynamic model and current-sharing control,
(7)Modeling methods of power electronics system application in flexible ac/dc transmission and distribution system,
(8)Modeling methods of power electronics system application in distributed generation micro grid system,
(9)Modeling methods of power electronics system application in motor drive and control system.
III.Teaching Schedule:
Week | Course Content | Teaching Method |
1 | Course and simulation software introduction, | lecture |
2 | State space modeling method, | lecture |
3 | Unified circuit modeling method, | lecture |
4 | Feedback control design of dc/dc converters, | lecture |
5 | Three phase PWM rectifier and inverter dynamic model, | lecture |
6 | PWM modulation theory, | lecture |
7 | PWM modulation theory, | lecture |
8 | Instantaneous power theory, | lecture |
9 | Converter parallel system dynamic model and current-sharing control, | lecture |
10 | Converter parallel system dynamic model and current-sharing control, | lecture |
11 | Modeling methods of power electronics system application in flexible ac/dc transmission and distribution system, | lecture |
12 | Modeling methods of power electronics system application in flexible ac/dc transmission and distribution system, | lecture |
13 | Modeling methods of power electronics system application in distributed generation micro grid system, | lecture |
14 | Modeling methods of power electronics system application in distributed generation micro grid system, | lecture |
15 | Modeling methods of power electronics system application in motor drive and control system, | lecture |
16 | Modeling methods of power electronics system application in motor drive and control system, | lecture |
17 | Homework and presentation. | Seminar |
18 | Homework and presentation. | Seminar |
