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Meteorologists and oceanographers build global atmospheric and oceanic models for weather and climate prediction using fundamental equations of fluid flow. This book provides a comprehensive account of such equations to improve understanding of the formulation of existing forecast models and encourage the development of more accurate models.
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Meteorologists and oceanographers build global atmospheric and oceanic models for weather and climate prediction using fundamental equations of fluid flow. This book provides a comprehensive account of such equations to improve understanding of the formulation of existing forecast models and encourage the development of more accurate models.
Produktdetails
- Produktdetails
- Verlag: Cambridge University Press
- Seitenzahl: 816
- Erscheinungstermin: 28. April 2022
- Englisch
- Abmessung: 259mm x 204mm x 42mm
- Gewicht: 2036g
- ISBN-13: 9781108838337
- ISBN-10: 1108838332
- Artikelnr.: 63266055
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
- Verlag: Cambridge University Press
- Seitenzahl: 816
- Erscheinungstermin: 28. April 2022
- Englisch
- Abmessung: 259mm x 204mm x 42mm
- Gewicht: 2036g
- ISBN-13: 9781108838337
- ISBN-10: 1108838332
- Artikelnr.: 63266055
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
Andrew N. Staniforth - now retired - led the development of dynamical cores for weather and climate prediction at two national centres (Canada and the UK). He has published over 100 peer-reviewed journal articles, and is the recipient of various prizes and awards including: the Editor's Award (American Meteorological Society, 1990); the Andrew Thompson Prize (Canadian Meteorological and Oceanographic Society, 1993); and the Buchan and Adrian Gill Prizes (Royal Meteorological Society, 2007 and 2009).
Preface. Notation and acronyms. Part I. Foundations: 1. Introduction
2. Governing equations for motion of a dry atmosphere: Vector form
3. Governing equations for motion of a cloudy atmosphere: Vector form
4. Governing equations for motion of geophysical fluids: Vector form
5. Orthogonal curvilinear coordinate systems
6. Governing equations for motion of geophysical fluids: Curvilinear form
7. Representation of gravity: Basic theory and spherical planets
8. Representation of gravity: Further theory and spheroidal planets
9. Thermodynamic potentials and thermodynamical consistency
10. Moist thermodynamics
11. Ocean thermodynamics
12. Geopotential coordinates for modelling planetary atmospheres and oceans
13. Vertical coordinates and boundary conditions
14. Variational methods and Hamilton's principle of stationary action
15. Conservation. Part II. Dynamically Consistent Equation Sets: 16. Deep and shallow equation sets in 3D
17. Quasi-shallow equation sets in 3D
18. Shallow water equation sets in 2D
19. A barotropic potential vorticity (BPV) equation for flow over a spheroidal planet. Part III. Exact Steady and Unsteady Nonlinear Solutions: 20. Exact steady solutions of the global shallow water equations
21. Exact 3D steady solutions of global equation sets
22. Exact unsteady solutions of the barotropic potential vorticity equation over an ellipsoid
23. Exact unsteady solutions in 3D over an ellipsoidal planet. Appendix. References. Index.
2. Governing equations for motion of a dry atmosphere: Vector form
3. Governing equations for motion of a cloudy atmosphere: Vector form
4. Governing equations for motion of geophysical fluids: Vector form
5. Orthogonal curvilinear coordinate systems
6. Governing equations for motion of geophysical fluids: Curvilinear form
7. Representation of gravity: Basic theory and spherical planets
8. Representation of gravity: Further theory and spheroidal planets
9. Thermodynamic potentials and thermodynamical consistency
10. Moist thermodynamics
11. Ocean thermodynamics
12. Geopotential coordinates for modelling planetary atmospheres and oceans
13. Vertical coordinates and boundary conditions
14. Variational methods and Hamilton's principle of stationary action
15. Conservation. Part II. Dynamically Consistent Equation Sets: 16. Deep and shallow equation sets in 3D
17. Quasi-shallow equation sets in 3D
18. Shallow water equation sets in 2D
19. A barotropic potential vorticity (BPV) equation for flow over a spheroidal planet. Part III. Exact Steady and Unsteady Nonlinear Solutions: 20. Exact steady solutions of the global shallow water equations
21. Exact 3D steady solutions of global equation sets
22. Exact unsteady solutions of the barotropic potential vorticity equation over an ellipsoid
23. Exact unsteady solutions in 3D over an ellipsoidal planet. Appendix. References. Index.
Preface. Notation and acronyms. Part I. Foundations: 1. Introduction
2. Governing equations for motion of a dry atmosphere: Vector form
3. Governing equations for motion of a cloudy atmosphere: Vector form
4. Governing equations for motion of geophysical fluids: Vector form
5. Orthogonal curvilinear coordinate systems
6. Governing equations for motion of geophysical fluids: Curvilinear form
7. Representation of gravity: Basic theory and spherical planets
8. Representation of gravity: Further theory and spheroidal planets
9. Thermodynamic potentials and thermodynamical consistency
10. Moist thermodynamics
11. Ocean thermodynamics
12. Geopotential coordinates for modelling planetary atmospheres and oceans
13. Vertical coordinates and boundary conditions
14. Variational methods and Hamilton's principle of stationary action
15. Conservation. Part II. Dynamically Consistent Equation Sets: 16. Deep and shallow equation sets in 3D
17. Quasi-shallow equation sets in 3D
18. Shallow water equation sets in 2D
19. A barotropic potential vorticity (BPV) equation for flow over a spheroidal planet. Part III. Exact Steady and Unsteady Nonlinear Solutions: 20. Exact steady solutions of the global shallow water equations
21. Exact 3D steady solutions of global equation sets
22. Exact unsteady solutions of the barotropic potential vorticity equation over an ellipsoid
23. Exact unsteady solutions in 3D over an ellipsoidal planet. Appendix. References. Index.
2. Governing equations for motion of a dry atmosphere: Vector form
3. Governing equations for motion of a cloudy atmosphere: Vector form
4. Governing equations for motion of geophysical fluids: Vector form
5. Orthogonal curvilinear coordinate systems
6. Governing equations for motion of geophysical fluids: Curvilinear form
7. Representation of gravity: Basic theory and spherical planets
8. Representation of gravity: Further theory and spheroidal planets
9. Thermodynamic potentials and thermodynamical consistency
10. Moist thermodynamics
11. Ocean thermodynamics
12. Geopotential coordinates for modelling planetary atmospheres and oceans
13. Vertical coordinates and boundary conditions
14. Variational methods and Hamilton's principle of stationary action
15. Conservation. Part II. Dynamically Consistent Equation Sets: 16. Deep and shallow equation sets in 3D
17. Quasi-shallow equation sets in 3D
18. Shallow water equation sets in 2D
19. A barotropic potential vorticity (BPV) equation for flow over a spheroidal planet. Part III. Exact Steady and Unsteady Nonlinear Solutions: 20. Exact steady solutions of the global shallow water equations
21. Exact 3D steady solutions of global equation sets
22. Exact unsteady solutions of the barotropic potential vorticity equation over an ellipsoid
23. Exact unsteady solutions in 3D over an ellipsoidal planet. Appendix. References. Index.