The objective of this course is to understand the basic principles of thermodynamics, and to apply the principles in various phenomena relevant to ferrous metallurgy and general materials production. The laws of thermodynamics will be applied to gas, liquid, solid systems. Basic solution theory, energy requirements, relations between Gibbs energy and phase equilibria and phase stability will be examined.

An elective course. No prerequisite is required.

• Class participation: 10%
• Homework: 20%
• Midterm Exam: 30%
• Final Exam: 40%

• “Materials Thermodynamics with Emphasis on Chemical Appraoch” by H.-G. Lee, World Scientific Press (2012)
• “Ferrous Thermodynamics” by M. Ohtani, Nikkan Kokyo Shinbunsha (1971)
• “Advanced Physical Chemistry for Process Metallurgy” Edited by N. Sano et al., Academic Press (1997).
• “Phase Diagrams and Thermodynamic Modeling of Solutions”, by A.D. Pelton, Elsevier (2018).
• “Thermodynamics of Microstructures”, by T. Nishizawa, ASM International (2008).
• “Chemical Thermodynamics of Materials” by C.H.P. Lupis, Elsevier Science Publishing Co. (1983).

1. Introduction of Course
2. Definition, Basic Math
3. The 1st Law of Thermodynamics
4. The 2nd Law of Thermodynamics
5. The 3rd Law of Thermodynamics
6. Gibbs Energy of Pure Component
7. Reaction and Changes of Energy of Compound System
8. Solution, Gibbs Energy of Ideal Solution, Chemical Potential
9. Chemical Potential and Equilibrium Criteria, Ellingham Diagram
10. Non-ideal Gas, Liquid/Solid Solution, Activity, Reference State
11. Solution Property, Gibbs-Duhem Equation
12. Dilute Solution and Their Properties
13. Wagner’s Formalism and Examples
14. Concentrated Solution, Regular Solution
15. Phase Diagram - Basics
16. Phase Diagram - Solidification Path, Alkemade Theorem
17. Phase Diagram and Gibbs Energy of Materials

Exercise using computer software may be assigned during this lecture.