Course description:
This course aims to lead students to further strengthen their knowledge in
thermophysical principles and transport phenomena. The theme is the
application of those fundamental principles in energy systems engineering.
Students should leave the course with confidence and sufficient abilities to
readily apply techniques as engineers on the design and analysis encountered
in a variety of emerging sustainable and renewable energy systems. A hands-
on project will be carried out as the platform for students to learn by
doing. Students should also be able to readily use the basic computer
software in solving energy related problems, as well as having a clear concept
when utilizing advanced commercial software in solving engineering problems.
The skills developed in this course will be applied in the semester-long
project to practice the detailed design of a complete sustainable energy
system. The objective is to translate the statement of an energy system
analysis and design problem into a series of tasks and step-by-step practices.


References:
1. Y.A. Çengel and M.A. Boles, Thermodynamics: An Engineering Approach
(McGraw-Hill)
2. B.R. Munson and T. H. Okiishi et al., Fluid Mechanics (Wiley)
3. F.P. Incropera and D. P. DeWitt et al., Principles of Heat and Mass
Transfer (Wiley)
4. R.A. Dunlap, Sustainable Energy 2nd edition (Cengage Learning)


Topics:
1. Introduction of course, The basics of energy conversion
2. Review of basic thermodynamics and thermosystems
3. Review of fluid dynamics
4. Review of fundamental heat transfer
5. Overview of HVAC system and thermal comfort, Green building
6. Solar thermal energy systems
7. Wind, Hydropower, Wave and Tidal energy systems
8. Oceanthermal and Geothermal energy systems
9. Hydrogen energy, Biomass energy
10.Nanotechnology for renewable and sustainable energy



Evaluation:
Homework, Midterm exam, Final project, Labs and quiz, Class participation