Chapter 3: Plate tectonics and mantle plume (6 hours)
Lithosphere and asthenosphere; paleomagnetism, seafloor spreading and plate tectonics; divergent, convergent, and
transforming plate boundaries; hotspot and mantle hot plume; continental rifts, contienntal collision, and Wilson Cycle.
Chapter 4: Earth’s thermal state (8 hours)
Surface heat flow; energy conservation and advection-diffusion equation; steady-state thermal conduction equation and
geotherm; the Moon’s geotherm; half-space cooling model, oceanic lithosphere’s thickness, surface heat flow, and
topography as a function of seafloor age.
Chapter 5: The shape and gravity field of the Earth (6 hours)
Spheroid and Centrifugal force; gravity measurements free-air gravity anomaly; Bouguer gravity anomaly; geoid.
Chapter 6: Mantle convection (12 hours)
Conservation of the mass; basics of strain rate and stress; conservation of the momentum; stream function; glacial
isostatic adjustment and mantle viscosity; Stokes flow and shape of the plume; Thermal convection and Rayleigh-Taylor
instability; plate subduction.
Chapter 7: Lithospheric flexure (6 hours)
2D flexure and flexure deformation; lithospheric flexure under vertical load; isostasy, compensation, and admittance.
Chapter 8: Faulting (4 hours)
Classification of faults; friction and stress on faults; Anderson theory of faulting.
1. Turcotte, D., and Schubert, D., Geodynamics, 3
rd
ed. Cambridge University Press, 2014.
2. Fowler, C. , The Solid Earth: An Introduction to Global Geophysics, 2
nd
ed. Cambridge University Press, 2005.
3. Grotzinger J, Jordan T H, Press F., Understanding earth. Macmillan, 2010.
4. Taras G., Introduction to numerical geodynamic modelling. Cambridge University Press, 2009.