Course title | |||||
統計力学 [Statistical Thermodynamics] | |||||
Course category | technology speciality courses,ets. | Requirement | Credit | 2 | |
Department | Year | 3~4 | Semester | Spring | |
Course type | Spring | Course code | 023302 | ||
Instructor(s) | |||||
下村 武史 [SHIMOMURA Takeshi] | |||||
Facility affiliation | Faculty of Engineering | Office | Email address |
Course description |
"Statistical Thermodynamics" provides the exact method to make macroscopic thermodynamic quantities such as entropy, free energy, connect with microscopic behavior. In particular, the many body system, which cannot be dealt with in classical mechanics, can be explained by probability theory. The usage of micro-canonical, canonical, and grand-canonical ensembles is studied through a lot of examples. A mini exam will be performed at the start of the lecture for confirming the understanding. |
Expected Learning |
Various problems such as gas kinetics, spin motion, and polymer conformation can be explained by the methods provided in the lecture. |
Course schedule |
I. Basic principles 1. Overview 2. Enumeration of microstates 3. Statistical postulates (principle of equal weight and heat equilibrium) 4. Disorder, entropy, and temperature II. Microcanonical ensemble 5. Entropy of ideal gas 6. Boltzmann distribution and method of Lagrange multiplier 7. Maxwell-Boltzmann velocity distribution 8. Noninteracting oscillators and paramagnetism 9. Midterm exam III. Canonical ensemble 10. Definition and properties 11. Helmholtz Free energy: Definition and usage 12. Gibbs Free energy: Definition and usage iV. Grand canonical ensemble 13. Chemical potential: Definition and usage 14. Definition and properties 15. Comprehensive final |
Prerequisites |
The credit of "Physical Chemistry I" should definitely be needed and the knowledge of permutations and combinations studied in high school is needed. |
Required Text(s) and Materials |
"Statistical Physics" in Japanese, Y. Nagaoka, Iwanami (1994). |
References |
"Physical chemistry 9th edition", P. Atkins and J. de Paula, W. H. Freeman (2009). |
Assessment/Grading |
Evaluation is done by mini exams (20%), a midterm exam (40%), and a comprehensive final (40%). |
Message from instructor(s) |
Course keywords |
gas kinetics, partition function, distribution function, canonical ensembles, specific heat |
Office hours |
Remarks 1 |
You can download related materials from Moodle site. |
Remarks 2 |
Score 2014 S 6%, A 33%, B 29%, C 18%, D 14% 2013 S 2%, A 34%, B 32%, C 20%, D 12% |
Related URL |
Lecture Language |
Japanese |
Language Subject |
Last update |
3/22/2018 12:39:53 PM |