Introduction to Energy Conversion

Course No:

Course Type: Major Foundation Course(Major compulsory course)

Course Period/ Course Credit:40/2.0

Prerequisite:College Physics

Teaching aims and requirements:

The essence of the energy Internet is that various types of energy work together to improve the user experience and reduce overall operating costs. However, the equations describing other forms of energy such as heat, wind, and chemical batteries are different from the equations describing the circuit model. Therefore, how to analyze the energy Internet in a unified and consistent manner becomes a key academic issue. Based on the pre-requisite courses of university physics, university chemistry and circuit principles, this course is divided into three special topics: (1). “Thermal energy and its conversion”, based on the laws of thermodynamics, introduces the thermodynamic cycle process, thermal power generation technology, Cogeneration technology; (2). "Electrochemistry and its conversion", based on the thermodynamics and kinetics of electrochemistry, introduces electrode reaction and battery technology; (3) "Renewable energy and its conversion", it introduces photovoltaic power generation, wind power generation, pumped storage technology and its integration with power electronics. The course will take several specific energy conversion applications as research examples to deepen students' understandings on energy conversion and practices.

Informative abstract:

week

course content

remarks

1st

Course Overview
thermodynamic basis

Internet of Energy and overview of energy conversation,
enthalpy/entropy

2nd

-7th

Thermodynamics part

thermodynamic basis、

Ideal Gas Law

thermodynamic process, multistage compression

Internal combustion engine and Aerodynamic cycle

gas power plant:Otto/Diesel/Brayton cycle,intercooling /regeneration

Water and vapor properties
(non-ideal gas)

Vaporization and saturation, Thermodynamic property of steam

external combustion engine, steam power cycle(1)

coal-fired power plant:Rankine cycle, Reheat / Regenerative cycle

steam power cycle(2)、
refrigeration cycle

Air conditioners and heat pumps:refrigeration cycle, vapour compression cycle, heat pump cycle

Thermodynamics discussion lesson

synthetic coursework 1 discussion

8th-11th
Electrochemical part

Electrochemical Thermodynamics

Electrochemical Thermodynamics, chemical potential

Electrochemical Thermodynamics

the origin of electromotive force:Gibbs free energy、Nernstequation

Electrochemical dynamics

the origin of electric current:Butler-Volmer equation、I-V curve

Electrochemical discussion lesson

synthetic coursework 2 discussion

12th

mid-term examination

 

13th-17th
Wave energy part

The principle of photovoltaic cell

Semiconductor power generation, MPPT and DC/DC

The principle of wind turbine generator

Hydrodynamic principle, MPPT, electric motors and DC/AC

The principle of hydroelectric generator

pumped storage,Variable Frequency Control of electric motor

Wave energy discussion lesson

synthetic coursework 3 discussion

18th

Course overview

 

19th

final exam

 

TextBook and References:

[1] The Physics of Energy, Robert L. Jaffe, Cambridge University Press, 2018

[2] Engineering Thermodynamics,Wang xiuyan,China Machine Press,2015

[3] Fuel Cell Fundamentals,Ryan O’Hayre,Electronic Industry Press,2007;

Tutor CURRICULUM VITAE:

Dr. Jin Lin obtained his Ph. D and Bachelor degree from Department of Electrical Engineering, Tsinghua University in 2012 and 2007 respectively. He was a Post Ph. D research fellow from 2012 to 2014 in the same department. He was honored as Excellent Doctoral Dissertation Award and Distinguished Post Ph. D by Tsinghua in 2014. IEEE Member, CSEE Member. He was a visiting researcher in Risø Sustainable Energy Laboratory, Denmark and National Renewable Energy Laboratory, US from 2009 to 2011. He has been granted by National Key R&D Program and National Scientific Foundation Council. Currently his main research interests are on renewable energy integration and control, distributed energy integration and control, power system control and optimization.