课程大纲
COURSE SYLLABUS
1.
课程代码/名称
Course Code/Title
储能原理与技术 Principle and technology of energy storage
2.
课程性质
Compulsory/Elective
专业选修课 Major Elective Courses
3.
课程学分/学时
Course Credit/Hours
3/48
4.
授课语
Teaching Language
中英双语 English & Chinese
5.
授课教
Instructor(s)
曾林,副教授,机械与能源工程系
Emailzengl3@sustech.edu.cn
Lin Zeng, Associate Professor,
Department of Mechanical and Energy Engineering,
Emailzengl3@sustech.edu.cn
6.
是否面向本科生开放
Open to undergraduates
or not
Yes
7.
先修要
Pre-requisites
If the course is open to
undergraduates, please indicate the difference.)
ME304 能源工程技术(非必须)
ME304 Fundamentals of Energy Engineering (Optional)
8.
教学目
Course Objectives
If the course is open to undergraduates, please indicate the
difference.)
1)研究生教学目标:本课程旨在介绍能源存储的基本原理以及各种储能技术的最新发展情况。通过课程
学习,掌握能源转换过程和储存过程中的基本原理和评价手段,熟悉各种储能系统中的能源的转化过程以
及关键技术,了解各种储能系统的最新的研究进展以及规模化应用情况。进一步,了解各类储能系统的集
成技术,管理和应用,以及能源互联网的概念。通过课程项目,培养学生对能源存储和转换过程的辩证分
析能力。
The objectives of this course: This course introduces students to the fundamentals of energy storage and
provides a broad understanding and appreciation of various energy storage systems (ESSs). Through
the course study, the students master the basic scientific principles that underpin the operation of
different ESSs and the evaluation methods, gain knowledge regarding the basic energy
conversion/storage process and critical technologies in different ESSs, and understand the latest
research development and industrial application of different ESSs. In addition, the students need to
understand the integration technology, management and application of different ESSs. The future
development and concept of energy Internet will be finally introduced. Through the course study, the
students are trained to have the capability of critically thinking and analyzing different ESSs.
2)本科生教学目标:通过该课程的教学使学生了解储能的基本原理以及储能技术的最新发展状况,对
源存储和转换的科学原理和应用有更广泛的理解和认识。提高学生在能源存储系统方向理论知识积累,培
养学生的工程分析及设计能力。通过该课程的教学使研究生掌握能源存储的关键技术,为后续科研工作中
专业能力的提升及发展奠定一定的基础。
Course objectives for undergraduates: To enable students to understand the basic principles of energy
storage and the latest development of energy storage technology, and to have a broader understanding
of the scientific principles and applications of energy storage and conversion. Through the teaching of
this course, undergraduate students can master the basic principles and the key technologies for energy
storage systems, lay a certain foundation for the promotion and development of professional ability in the
follow-up scientific research work.
9.
教学方
Teaching Methods
If the course is open to undergraduates, please indicate the
difference.)
教室讲授(多媒体授课+案例解析),以及课程项目设计(课程展示+告)
Classroom lecture (multimedia teaching + case analysis), and course project (oral presentation + report)
对本科生和研究生使用相同方法,不同评估标准(课后作业和课程项目难度不同)
Use the same teaching method for both undergraduate and graduate students, but with different
assessment criteria (different difficulty levels in homework and course projects).
10.
教学内
Course Contents
(如面向本科生开放,请注明区分内容。 If the course is open to undergraduates, please indicate the
difference.)
Section 1
能源现状以及储能基本原理
Global energy status and basic principles of energy storage
Section 2
机械储能
Mechanical Energy Storage
Section 3
化学储能
Chemical Energy Storage
Section 4
电能储能
Electrical Energy Storage
Section 5
电化学储能
Electrochemical Energy Storage
Section 6
热能储能
Thermal Energy Storage
Section 7
储能系统集成、管理和应用
Energy Storage Integration, management and application
Section 8
储能系统比较和成本分析
Comparison and cost analysis of different energy storage systems
Section 9
储能技术未来发展方向和能源互联网
Future development of energy storage technology and energy Internet
Section 10
课程项目汇报
Course project report
………
11.
课程考
Course Assessment
1
Form of examination
2
. grading policy
3
If the course is open to undergraduates, please indicate the difference.)
1
考核形式 Form of examinationAssessment
2
分数构 grading policya.出勤 Attendance 10%; b. 程项目 Projects 30%; c.期末考 Final exam
40%; d. 期末报告 Final Presentation 20%
3 If the course is open to undergraduates, please indicate the
difference.
本科生考核分数构成如下 Grading policy for
a. Attendance 10%; b. Projects 30%; c. Final exam 30%; d. Final
Presentation 30%
12.
教材及其它参考资料
Textbook and Supplementary Readings
1. Michael Sterner, Ingo Stadler, Handbook of Energy Storage: Demand, Technologies, Integration, Springer,
2019, ISBN: 978-3-662-55503-3
2. Robert A. Huggins, Energy Storage Fundamentals, Materials and Applications, 2nd edition, Springer, 2015,
ISBN: 978-3-319-21238-8