CMS-Flow:Bottom Friction: Difference between revisions
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(Created page with '== Bottom Friction == '''Flow without Waves''' In the situation without waves, the bottom shear stress is calculated based on the quadratic formula <math> \tau_m = \tau_…') |
(Created page with '== Bottom Friction == '''Flow without Waves''' In the situation without waves, the bottom shear stress is calculated based on the quadratic formula math \tau_m = \tau_…') |
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| Line 5: | Line 5: | ||
In the situation without waves, the bottom shear stress is calculated based on the quadratic formula | In the situation without waves, the bottom shear stress is calculated based on the quadratic formula | ||
math \tau_m = \tau_c = c_b|U|U /math | |||
where | where math c_b /math is the bottom friction coefficient, math U/math is the depth-averaged current velocity. | ||
'''Flow with Waves''' | '''Flow with Waves''' | ||
| Line 13: | Line 13: | ||
In the case with waves, the bottom friction is calculated as | In the case with waves, the bottom friction is calculated as | ||
math \tau_m = \tau_c = c_b|U|U /math | |||
Revision as of 19:15, 5 May 2010
Bottom Friction
Flow without Waves
In the situation without waves, the bottom shear stress is calculated based on the quadratic formula
math \tau_m = \tau_c = c_b|U|U /math
where math c_b /math is the bottom friction coefficient, math U/math is the depth-averaged current velocity.
Flow with Waves
In the case with waves, the bottom friction is calculated as
math \tau_m = \tau_c = c_b|U|U /math