Roller: Difference between revisions
Line 7: | Line 7: | ||
{{Equation| <math> \frac{\partial (c_j S_r) }{\partial x_j} = -D_r + f_e D_w </math>|2=1}} | {{Equation| <math> \frac{\partial (c_j S_r) }{\partial x_j} = -D_r + f_e D_w </math>|2=1}} | ||
where <math> | where <math>c_j</math> are the roller propagation velocities, <math>D_r</math> is the roller dissipation, <math>D_w</math> is the wave dissipation (from CMS-Wave), and <math>f_e</math> is an efficiency factor between 0 and 1 which determines how much wave energy dissipation that goes into the roller (default 1). | ||
The propagation velocities are determines as | |||
{{Equation| <math> c_j=c*k_j/k+u_j </math>|2=2}} | |||
== References == | == References == |
Revision as of 18:54, 10 September 2010
Surface Roller Model in CMS - UNDER CONSTRUCTION
Governing Equation
The surface roller model is simulated as
(1) |
where are the roller propagation velocities, is the roller dissipation, is the wave dissipation (from CMS-Wave), and is an efficiency factor between 0 and 1 which determines how much wave energy dissipation that goes into the roller (default 1).
The propagation velocities are determines as
(2) |
References
Buttolph, A. M., C. W. Reed, N. C. Kraus, N. Ono, M. Larson, B. Camenen, H. Hanson, T. Wamsley, and A. K. Zundel. (2006). “Two-dimensional depth-averaged circulation model CMS-M2D: Version 3.0, Report 2: Sediment transport and morphology change.” Coastal and Hydraulics Laboratory Technical Report ERDC/CHL TR-06-9. Vicksburg, MS: U.S. Army Engineer Research and Development Center, U.S.A.