Transport Processes in Earth and Environmental Systems

Course Outline

 

1  Notation and Scope of Mathematics

  • coordinate systems, sign conventions
  • scalar functions, vector functions
  • ordinary versus partial derivatives
  • dimensional analysis

2  Continuum Versus Discrete-Particle/Cellular Concepts

  • physical point, Knudsen scale
  • cellular automata

3  Physical and Thermodynamic Properties of Fluids and Granular Materials

  • state variables, statics, rheology
  • phase transitions, equations of state

4  Conservation of Mass, Energy and Momentum

  • control volumes
  • divergence, local and particle derivatives
  • source and sink terms

5  Constitutive (Transport) Laws and Formulae

  • gradient
  • linear laws and formulae
  • nonlinear formulae

6  One-Dimensional Flows and Transport

7  Complex Systems – The Philosophy of Reductionist Versus Synthesist Viewpoints

  • few-component versus many-component systems, linear versus nonlinear behavior
  • the upscaling problem, emergent behavior, homogenization
  • evaluating factor significance, toy models versus "real" models
  • the full significance of conservation

8  Advection-Diffusion-Reaction Systems

9  Scaling – Interactions Among Length and Time Scales

  • characteristic quantities, dimensionless numbers
  • scale models

10  Elementary Numerical Analysis

11  Applications to Selected Earth/Environmental Systems



A PDF of the outline on this page can be obtained from the link below.

Course Outline



For more information, please contact David Jon Furbish.