Foreword XIII | |
Preface XV | |
Acknowledgments XXV | |
About the cover XXVII | |
List of symbols XXIX | |
Ocean Climate Models | |
Ocean models as tools for ocean science | |
Ocean climate models | |
Challenges of climate change | p. 3 |
Fundamental Ocean Equations | p. 5 |
Basics Of Ocean Fluid Mechanics | |
Some fundamental ocean processes | |
The continuum hypothesis | |
Kinematics of fluid motion | p. 1 |
Kinematical and dynamical approximations | p. 1 |
Averaging over scales and realizations | p. 2 |
Numerical discretization | p. 2 |
Chapter summary | p. 22 |
Kinematics | p. 2 |
Introduction | p. 2 |
Mathematical preliminaries | p. 2 |
The divergence theorem and budget analyses | p. 2 |
Volume and mass conserving kinematics | p. 3 |
Chapter summary | p. 40 |
Dynamics | p. 4 |
Introduction | p. 4 |
Motion on a rotating sphere | p. 4 |
Principles of continuum dynamics | p. 4 |
Dynamics of fluid parcels | p. 5 |
Hydrostatic pressure | p. 5 |
Dynamics of hydrostatic fluid columns | p. 5 |
Fluid motion in a rapidly rotating system | p. 6 |
Vertical stratification | p. 6 |
Vorticity and potential vorticity | p. 7 |
0 Particle dynamics on a rotating sphere | p. 7 |
1 Symmetry and conservation laws | p. 8 |
2 Chapter summary | p. 83 |
Thermo-Hydrodynamics | p. 8 |
General types of ocean tracers | p. 8 |
Basic equilibrium thermodynamics | p. 9 |
Energy of a fluid parcel | p. 9 |
Global mechanical energy balance | p. 10 |
Basic non-equilibrium thermodynamics | p. 11 |
Thermodynamical tracers | p. 11 |
Ocean density | p. 11 |
Chapter summary | p. 118 |
Generalized Vertical Coordinates | p. 12 |
Introduction | p. 12 |
Concerning the choice of vertical coordinate | p. 12 |
Generalized surfaces | p. 12 |
Local orthonormal coordinates | p. 13 |
Mathematics of generalized vertical coordinates | p. 13 |
Metric tensors | p. 13 |
The dia-surface velocity component | p. 13 |
Conservation of mass and volume for parcels | p. 14 |
Kinematic boundary conditions | p. 14 |
0 Primitive equations | p. 14 |
1 Transformation of SGS tracer flux components | p. 14 |
2 Chapter summary | p. 149 |
averaged Descriptions | p. 153 |
Concerni Ng Unresolved Physics | p. 15 |
Represented dynamics and parameterized physics | p. 15 |
Lateral (neutral) and vertical processes | p. 15 |
Basic mechanisms for dianeutral transport | p. 15 |
Dianeutral transport in models | p. 16 |
Numerically induced spurious dianeutral transport | p. 16 |
Chapter summary | p. 167 |
Eulerian Averaged Equations | p. 16 |
Introduction | p. 16 |
The nonhydrostatic shallow ocean equations | p. 17 |
Averaged kinematics | p. 17 |
Averaged kinematics over finite domains | p. 17 |
Averaged tracer | p. 17 |
Averaged momentum budget | p. 18 |
Summary of the Eulerian averaged equations | p. 18 |
Mapping to ocean model variables | p. 18 |
Chapter summary | p. 187 |
Kinematics Of An Isentropic Ensemble | p. 18 |
Parameterizing mesoscale eddies | p. 18 |
Advection and skewsion | p. 19 |
Volume conservation | p. 19 |
Ensemble mean tracer equation | p. 20 |
Quasi-Stokes transport in z-models | p. 20 |
Chapter summary | p. 212 |
Semi-Discrete Equations And Algorithms | p. 215 |
Discretization Basics | p. 217 |
Discretization methods | p. 217 |
An introduction to Arakawa grids | p. 218 |
Time stepping | p. 219 |
Chapter summary | p. 221 |
Mass And Tracer Budgets | p. 222 |
Summary of the continuous model equations | p. 222 |
Tracer and mass/volume compatibility | p. 223 |
Mass budget for a grid cell | p. 223 |
Mass budget for a discrete fluid column | p. 227 |
Tracer budget for a grid cell | p. 228 |
Fluxes for turbulence mixed layer schemes | p. 232 |
Flux plus restore boundary conditions | p. 233 |
Z-like vertical coordinate models | p. 234 |
Chapter summary | p. 235 |
Algorithms for hydrostatic ocean model | |
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