Integrated Energy System

发布者:黄允凯发布时间:2015-12-28浏览次数:136

Course Name

Chinese

综合能源系统

English

Integrated Energy System

Course Number


Type of Degree

Ph. D


Master

Total Credit Hours

36

In Class Credit Hours

36

Credit

2

Practice

2

Computer-using Hours

0

Course Type

Public   Fundamental    Major Fundamental    Major Compulsory     RMajor Elective

School (Department)

School of Electrical   Engineering

Term

Spring

Examination

A.PaperOpen-book   Closed-book  B.Oral  

C.Paper-oral   Combination                       D.R Others      Course Report        

Chief

Lecturer

Name

Gu Wei

Professional Title

Associate Professor

E-mail

wgu@seu.edu.cn

Website

http:/te_184.htm

Teaching Language used   in Course

Chinese

Teaching Material   Website


Applicable Range of Discipline

first-class

Name of First-Class Discipline

Electrical Engineering   and its Automation

Number of Experiment

2

Preliminary Courses


Teaching Books

Textbook Title

Author

Publisher

Year of Publication

Edition Number

Main Textbook

Combined Cooling Heating and Power   

Kong Xiangqiang

National Defense   Industry Press

2011.6

1

Main Reference Books

Distributed Combined Cooling Heating   and Power System Devices and Applications

Jin Hongguang

China Electric Power   Publisher

2010.2

1




























I.Course Introduction (including teaching goals and requirements) within 300 words:

This course will give a fully introduce on the theory and method of analysis, assessment, monitoring and control of integrated energy system which based on smart grid. The mathematical model of integrated energy system including the traditional power system and transmission and distribution of heating and cooling are presented, and the integrated energy evaluation index system are focused on during this course. Besides, this course will concentrate on the mathematical methods of planning and optimal operation for the integrated energy system. The interactive influence between integrated energy system renewable energy and transport network will also be discussed.

This course will fortify students’ knowledge on modeling and optimal operation of integrated energy system, and make them grasp the basic theory of the integrated energy system and is helpful to their related research in future..

II.Teaching Syllabus (including the content of chapters and sections. A sheet can be attached):

Chapter 1   Introduction to integrated energy systems

Chapter 2   CCHP (Combined Cooling Heating and Power) Technology

Chapter 3   Distributed Unit Modeling of CCHP

Chapter 4   Planning of CCHP System

Chapter 5   Energy Management of CCHP System

Chapter 6   Modeling of Integrated Energy System

Chapter 7   Evaluation Index System of Integrated Energy System

Chapter 8   Planning of Integrated Energy System

Chapter 9   Optimal Operation of Integrated Energy System

Chapter 10  Integrated Energy Systems and Renewable Energy

Chapter 11  Cooperative Planning of Energy Network and Transport Network

Chapter 12  Future Outlook of Smart Energy Grid

III.Teaching Schedule:

Week

Course Content

Teaching Method

1

General Theory of Integrated Energy System -   Conception, Definition and Classification

Lecture

2

Introduction of Combined Cooling Heating   and Power

Lecture

3

Cogeneration Modeling: Microgas Turbind/Fuel   Cell, Waste Heat Boiler/Heat Storage/Absorption Boiler etc

Lecture

4

Planning of CCHP System: Energy efficiency/Economic   Evaluation Index System

Lecture

5

Optimal Operation of CCHP System: Modeling   and Optimization Algorithm

Lecture

6

Energy Management of Integrated Energy   System: Case Studies

Lecture

7

Modeling   of Integrated Energy System: Traditional Power System and Transmission and Distribution of Heating   and Cooling

Lecture

8

Modeling   of traditional power equipment and cogeneration Devices and the  Coupling Mechanism Analysis

Lecture

9

Evaluation   Index System of Integrated Energy System:  Economic and Environmental

Lecture

10

Planning   of Integrated Energy System: Theories and Methods

Lecture

11

Optimal   Scheduling of Integrated Energy System: Multi Temporal and Spatial Scales

Lecture

12

Energy   Management of Integrated Energy System:Architecture   andRealization

Lecture

13

Case   Studies: The Optimal Operation of Smart Energy Network

Lecture

14

Opportunities   Brought About by Integrated Energy System: Promotion of Renewable Energy Consumptive

Lecture

15

Cooperative   Planning of Energy Network and Transport Network

Lecture

16

Future   Outlook of smart energy grid

Lecture