SMS:CMS-Wave Control File
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CMS-Wave parameter files always contain a single line of data defining the parameter options for the simulation. This line will include either 6, 10 or 15 values. SMS writes all 15 values to the input files it creates. The other formats are supported for backward compatibility.
If only the first six values are present, the other nine values will be assigned default values. The default for the diffraction intensity factor is weak diffraction (akap = 1.0). The default for the other eight parameters is 0 (defined in table below).
If ten values exist in the file, bottom reflection is defaulted to off, forward reflection is defaulted to 50% and reverse reflection is defaulted to 30%.
After this single line, additional lines may be present to define the location of observation and nesting cells. CMS-Wave will save additional output (spectra) at these cells into the specified *.obs and *.nst files.
A sample file and table of the parameters is defined below.
File Format
iprp icur ibrk irs kout ibnd iwet ibf iark iarkr akap bf arc arkr iwvbk |
kout rows (each row includes the I and J indices of a selected output cell |
nestout |
nestout rows (each row includes the I and J indices of selected nesting output cells |
Sample File
1 0 0 0 2 0 0 0 0 0 4.000000 0.005000 0.500000 0.300000 0 |
10 15 |
23 41 |
4 |
28 7 |
27 8 |
28 9 |
29 10 |
Parameter definitions
Parameter | Description |
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iprp | -1, for fast-mode simulation |
0, for wave generation and propagation (uses wind input and spectra) | |
1, for propagation only (neglect wind input) | |
2, for wind only (implies a zero energy spectra) | |
icur | 0, no current file read |
1, read current file with a dataset for each input spectra | |
2, read single data set from current file for all spectra | |
ibrk | 0, no breaking file will be created |
1, breaking file with be created with breaking index for each cell | |
2, breaking file with be created with energy dissipation flux saved for each cell | |
irs | 0, no radiation stress gradient file will be created |
1, radiation stress gradient file will be created | |
2, radiation stress gradient file and wave setup/maximum water level files will be created | |
kout | 0, no selected output data files will be created |
n, output spectra (.obs) and parameters (selhts.out) files will be created at n specified cells | |
ibnd | 0, simulation will use single spectra (*.eng) file along offshore boundary |
1, simulation will use nesting file (.nst) with linear interpolation of boundary input | |
2, simulation will use nesting file (.nst) with morphic interpolation of boundary input | |
iwet | 0, normal wetting/drying (based on water level input) |
1, no wetting/drying (water level input ignored) | |
ibf | 0, no bottom friction |
1, for bottom friction with constant Darcy-Weisbach type coefficient (bf) | |
2, for bottom friction with variable Darcy-Weisbach type coefficient (friction.dat) | |
3, for bottom friction with constant Manning coefficient (bf) | |
4, for bottom friction with variable Manning coefficient (friction.dat) | |
iark | 0, no forward reflection |
1, with forward reflection | |
iarkr | 0, no backward reflection |
1, with backward reflection | |
akap | diffraction intensity factor (0 for no diffraction, 4 for strong diffraction) |
bf | constant bottom friction coefficient |
ark | constant forward reflection coefficient (0 for no reflection, 1 for maximum forward reflection) |
arkr | constant backward reflection coefficient (0 for no reflection, 1 for maximum backward reflection) |
iwvbk | 0, for extended Goda wave breaking (Sakai et al. 1989) |
1, for extended Miche wave breaking (Battjes 1972; Mase et al. 2005b) | |
2, for Battjes and Janssen wave breaking (1978) | |
3, for Chawla and Kirby wave breaking (2002) |
Related Topics
SMS – Surface-water Modeling System | ||
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Modules: | 1D Grid • Cartesian Grid • Curvilinear Grid • GIS • Map • Mesh • Particle • Quadtree • Raster • Scatter • UGrid | |
General Models: | 3D Structure • FVCOM • Generic • PTM | |
Coastal Models: | ADCIRC • BOUSS-2D • CGWAVE • CMS-Flow • CMS-Wave • GenCade • STWAVE • WAM | |
Riverine/Estuarine Models: | AdH • HEC-RAS • HYDRO AS-2D • RMA2 • RMA4 • SRH-2D • TUFLOW • TUFLOW FV | |
Aquaveo • SMS Tutorials • SMS Workflows |