Croco Doc

Model Doc

  • 1. Governing Equations
  • 2. Model variables
  • 3. Grid and Coordinates
  • 4. Numerics
  • 5. Parametrizations
  • 6. Parallelisation
  • 7. Atmospheric Surface Boundary Layer
  • 8. Open boundaries conditions
  • 9. Rivers
  • 10. Tides
  • 11. Nesting Capabilities
  • 12. Sediment and Biology models
  • 13. Coupling CROCO with other models
  • 14. I/O and Online Diagnostics
  • 15. Review of test cases
  • 16. Appendices

Tutorials

  • 1. System requirements
  • 2. Download
  • 3. Contents & Architecture
  • 4. Summary of essential steps
  • 5. Test Cases
  • 6. Regional: Preparing your configuration
  • 7. Regional: Preprocessing (Matlab)
  • 8. Compiling
  • 9. Running the model
  • 10. Increasing the resolution: BENGUELA_VHR
  • 11. Running with interannual forcing
  • 12. Nesting Tutorial
  • 13. Adding Rivers
  • 14. Adding tides
  • 15. Visualization (Matlab)
  • 16. Visualization (Python)
  • 17. NBQ Tutorial
  • 18. Coupling tutorial
  • 19. Littoral dynamics tutorial
  • 20. Realistic coastal configuration
  • 21. XIOS
  • 22. Tips
  • 23. CROCO/MUSTANG tutorial & tips
  • 24. TRAINING 2019: DATARMOR specific
  • 25. Ifremer specific
Croco Doc
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  • 1. Governing Equations
    • 1.1. Primitive Equations
    • 1.2. Quasi-Hydrostatic Equations
    • 1.3. Wave-averaged Equations
    • 1.4. Non-Hydrostatic, Non-Boussinesq Equations
  • 2. Model variables
    • 2.1. Domain variables (grid.h)
    • 2.2. Barotropic variables (ocean2d.h)
    • 2.3. Tri-dimensionnal variables (ocean3d.h)
    • 2.4. Surface forcing (forces.h)
  • 3. Grid and Coordinates
    • 3.1. Vertical Grid parameters
    • 3.2. Wetting-Drying
  • 4. Numerics
    • 4.1. Overview
    • 4.2. Time Stepping
    • 4.3. Advection Schemes
    • 4.4. Pressure gradient
    • 4.5. Equation of State
    • 4.6. Wetting and Drying
    • 4.7. Non-Boussinesq Solver
  • 5. Parametrizations
    • 5.1. Vertical mixing parametrizations
    • 5.2. Horizontal diffusion
    • 5.3. Bottom friction
  • 6. Parallelisation
    • 6.1. Parallel strategy overview
    • 6.2. Loops and indexes
    • 6.3. Exchanges
    • 6.4. Dealing with outputs
  • 7. Atmospheric Surface Boundary Layer
  • 8. Open boundaries conditions
    • 8.1. OBC
    • 8.2. Sponge Layer
    • 8.3. Nudging layers
    • 8.4. Lateral forcing
  • 9. Rivers
  • 10. Tides
  • 11. Nesting Capabilities
  • 12. Sediment and Biology models
    • 12.1. Bottom Boundary Layer model
    • 12.2. Sediment models
    • 12.3. Biogeochemical models
    • 12.4. Lagrangian floats
  • 13. Coupling CROCO with other models
    • 13.1. OASIS philosophy
    • 13.2. Detailed OASIS implementation
    • 13.3. Coupled variables
    • 13.4. Grids
  • 14. I/O and Online Diagnostics
  • 15. Review of test cases
    • 15.1. Basin
    • 15.2. Canyon
    • 15.3. Equator
    • 15.4. Inner Shelf
    • 15.5. River Runoff
    • 15.6. Gravitational/Overflow
    • 15.7. Seamount
    • 15.8. Shelf front
    • 15.9. Equatorial Rossby Wave
    • 15.10. Thacker
    • 15.11. Upwelling
    • 15.12. Baroclinic Vortex
    • 15.13. Internal Tide
    • 15.14. Internal Tide (COMODO)
    • 15.15. Baroclinic Jet
    • 15.16. Plannar Beach
    • 15.17. Rip Current
    • 15.18. Sandbar
    • 15.19. Swash
    • 15.20. Tank
    • 15.21. Acoustic wave
    • 15.22. Gravitational Adjustment
    • 15.23. Internal Soliton
    • 15.24. Kelvin-Helmoltz Instability
    • 15.25. Horizontal tracer advection
    • 15.26. Sediment test cases
  • 16. Appendices
    • 16.1. cppdefs.h
    • 16.2. croco.in
    • 16.3. Comparison of ROMS and CROCO versions
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