| Date |
Topics |
Reference |
| 8/22 |
Elementary
gas kinetic theory. Pressure. Avogadro's law.
Temperature.
Gas constants and molecular quantities.
|
Kennard,
Ch. 1 (p. 1 -27) |
| 8/24 | ||
| 8/29 |
||
| 8/31 |
||
| 9/ 5 |
Molecular collisions. Binary collision dynamics. Collision cross-section and scattering. Collision frequency and mean free path. |
Bird,
Ch. 2 |
| 9/7 |
||
| 9/12 |
||
| 9/14 |
Fluctuations. Poisson distribution of the number of molecules in a small volume. |
Kennard,
Ch. VII (p. 275-280) |
| 9/19 |
The Boltzmann Equation:
assumptions
and derivation. |
Bird,
Ch. 3 |
| 9/21 |
||
| 9/26 |
Non-dimensional form of the Boltzmann equation. Similarity criteria. |
Kogan, Ch. 2 (p. 99-104) |
| 9/28 |
Moment
transfer equation. H-theorem and equilibrium. Maxwell velocity distribution function. Gaussian integrals. |
Bird, 3.3, 3.4 & 4.1. |
| 10/3 |
||
| 10/5 |
||
| 10/10 |
No class
(October break). |
|
| 10/12 | Conservation equations. Connection
between BE and Euler, Navier-Stokes equations. |
Bird, 3.3 (p. 55-61) |
| 10/17 |
Midterm I |
|
|
10/19 |
Equilibrium fluxes. Gas-surface interaction. |
Bird, 4.2 Bird, 5.8 |
| 10/24 |
Free molecular aerodynamics. Professor
Gustafson's talk. |
Bird, Ch. 7 |
| 10/26 |
Introduction to DSMC. Pseudo random number generators. | |
| 10/31 |
Inverse-cumulative
and acceptance-rejection sampling from a prescribed distribution. |
|
| 11/2 |
DSMC procedure, requirements and algorithms. Parallel implementations |
|
| 11/7 |
Collisional sampling in the DSMC: No-time-counter and majorant frequency. |
|
| 11/9 |
||
| 11/14 |
Transport phenomena. Viscosity, thermal conductivity, diffusivity. |
|
| 11/16 |
||
| 11/21 |
||
| 11/23 |
No
class.Thanksgiving
break. |
|
| 11/28 |
Internal energy of molecules. Boltzmann
distribution, partition function. Heat capacity of calorically
imperfect gas. |
Vincenti,IV.12 |
| 11/30 |
Internal
energy
relaxation and chemical reactions. |
Bird, 5.3-7, 6.1-3 |
| 12/5 |
DSMC applications to high-altitude aerothermodynamics. | |
| 12/7 |
Discrete-ordinate method for solution of Boltzmann and model kinetic equations. Applications of kinetic methods to microflows. |