Course Syllabus:
- Equations of motion and approximations- Momentum equations for fluid on a rotating frame, continuity equations, thermodynamic equations, scalings, Boussinesq Approximation, Anelastic Approximation
- Shallow Water systems theory- Single layer and stratified Shallow Water systems, Shallow Water waves
- Vorticity and Circulation- Vorticity and Circulation Theorems, Potential Vorticity in Approximate-Stratified Models
- Geostrophic theory- The Planetary-Geostrophic Equations, Quasi-Geostrophic Equations, Ekman layer
- Waves in the atmosphere-ocean system- Rossby waves, Gravity waves, Internal waves, Equatorial wave disturbances, Waves-mean flow interactions
- Instabilities in geophysical fluids- Instability of Parallel Shear Flow, Barotropic and baroclinic instabilities, Energetics
- Turbulence- The Kolmogorov Theory, 2D and 3D turbulence, geostrophic turbulence, turbulent diffusion and mixing
Course Outcome: After this course the student will
- gain a fundamental understanding of the fluid dynamics of the atmosphere and the oceans.
- appreciate turbulent flow structures at large scales of the planet
- examine different kinds of dispersive waves and their energetics across scales
Grading criteria: Regular homeworks and two exams will be used to assign the course grade
Textbook: Atmospheric and Oceanic Fluid Dynamics by Geoffrey K. Vallis
- Teacher: Jim Thomas
Credit Score: 4