scientimate.wavevel2wlconvfactor

Kuv, f = scientimate.wavevel2wlconvfactor(f, h, heightfrombed, kCalcMethod='beji', dispout='no')

Description

Calculate a water particle horizontal orbital velocity to the water surface elevation conversion factor

Inputs

f

Frequency in (Hz)

h

Water depth in (m)

heightfrombed

Height from bed that Kp calculated at in (m)

kCalcMethod=’beji’

Wave number calculation method

‘hunt’: Hunt (1979), ‘beji’: Beji (2013), ‘vatankhah’: Vatankhah and Aghashariatmadari (2013)

‘goda’: Goda (2010), ‘exact’: calculate exact value

dispout=’no’

Define to display outputs or not (‘yes’: display, ‘no’: not display)

Note: inputs can be as a single value or a 1-D vertical array

Outputs

Kuv

Horizontal orbital velocity to the water surface elevation conversion factor

f

Frequency (Hz)

Examples

import scientimate as sm
import numpy as np

Kuv,f=sm.wavevel2wlconvfactor(0.2,1,0.2,'beji','no')

Kuv,f=sm.wavevel2wlconvfactor([0.2,0.25],[0.5,0.6],0.2,'exact','yes')

Kuv,f=sm.wavevel2wlconvfactor(np.array([0.2,0.25]),np.array([0.5,0.6]),0.2,'exact','yes')

References

Beji, S. (2013). Improved explicit approximation of linear dispersion relationship for gravity waves. Coastal Engineering, 73, 11-12.

Goda, Y. (2010). Random seas and design of maritime structures. World scientific.

Hunt, J. N. (1979). Direct solution of wave dispersion equation. Journal of the Waterway Port Coastal and Ocean Division, 105(4), 457-459.

Vatankhah, A. R., & Aghashariatmadari, Z. (2013). Improved explicit approximation of linear dispersion relationship for gravity waves: A discussion. Coastal engineering, 78, 21-22.

Wiberg, P. L., & Sherwood, C. R. (2008). Calculating wave-generated bottom orbital velocities from surface-wave parameters. Computers & Geosciences, 34(10), 1243-1262.