Wave Height given Mean Water Surface Elevation Set down for Regular Waves Calculator

✖Mean Water Surface Elevation of Coast is the height, in relation to mean sea level of floods of various magnitudes and frequencies in the floodplains of coastal or riverine areas.ⓘ Mean Water Surface Elevation of Coast [η'_o]			+10% -10%
✖Water Depth of the considered catchment is the depth as measured from the water level to the bottom of the considered water body.ⓘ Water Depth [d]			+10% -10%
✖Wavelength of Coast is the distance between two successive crests or troughs of a wave.ⓘ Wavelength of Coast [λ]			+10% -10%

✖Wave Height of a surface wave is the difference between the elevations of a crest and a neighboring trough.ⓘ Wave Height given Mean Water Surface Elevation Set down for Regular Waves [H]

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Wave Height given Mean Water Surface Elevation Set down for Regular Waves

Formula

`"H" = sqrt("η'"_{"o"}*8*sinh(4*pi*"d"/"λ")/(2*pi/"λ"))`

Example

`"2.986363m"=sqrt("0.51m"*8*sinh(4*pi*"1.05m"/"26.8m")/(2*pi/"26.8m"))`

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Wave Height given Mean Water Surface Elevation Set down for Regular Waves Solution

STEP 0: Pre-Calculation Summary

Formula Used

Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast))
H = sqrt(η'_o*8*sinh(4*pi*d/λ)/(2*pi/λ))
This formula uses 1 Constants, 2 Functions, 4 Variables

Constants Used

pi - Archimedes' constant Value Taken As 3.14159265358979323846264338327950288

Functions Used

sqrt - A square root function is a function that takes a non-negative number as an input and returns the square root of the given input number., sqrt(Number)
sinh - The hyperbolic sine function, also known as the sinh function, is a mathematical function that is defined as the hyperbolic analogue of the sine function., sinh(Number)

Variables Used

Wave Height - (Measured in Meter) - Wave Height of a surface wave is the difference between the elevations of a crest and a neighboring trough.
Mean Water Surface Elevation of Coast - (Measured in Meter) - Mean Water Surface Elevation of Coast is the height, in relation to mean sea level of floods of various magnitudes and frequencies in the floodplains of coastal or riverine areas.
Water Depth - (Measured in Meter) - Water Depth of the considered catchment is the depth as measured from the water level to the bottom of the considered water body.
Wavelength of Coast - (Measured in Meter) - Wavelength of Coast is the distance between two successive crests or troughs of a wave.

STEP 1: Convert Input(s) to Base Unit

Mean Water Surface Elevation of Coast: 0.51 Meter --> 0.51 Meter No Conversion Required
Water Depth: 1.05 Meter --> 1.05 Meter No Conversion Required
Wavelength of Coast: 26.8 Meter --> 26.8 Meter No Conversion Required

STEP 2: Evaluate Formula

Substituting Input Values in Formula

H = sqrt(η'_o*8*sinh(4*pi*d/λ)/(2*pi/λ)) --> sqrt(0.51*8*sinh(4*pi*1.05/26.8)/(2*pi/26.8))

Evaluating ... ...

H = 2.98636294390331

STEP 3: Convert Result to Output's Unit

2.98636294390331 Meter --> No Conversion Required

FINAL ANSWER

2.98636294390331 ≈ 2.986363 Meter <-- Wave Height

(Calculation completed in 00.004 seconds)

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Created by Mithila Muthamma PA

Coorg Institute of Technology (CIT), Coorg

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< 20 Wave Setup Calculators

Wave Height given Mean Water Surface Elevation Set down for Regular Waves

Go Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast))

Set down for Regular Waves

Go Mean Water Surface Elevation of Coast = (-1/8)*((Wave Height^2*(2*pi/Wavelength of Coast))/(sinh(4*pi*Water Depth/Wavelength of Coast)))

Breaker Depth Index given Set-down at Breaker Point at Still-Water Shoreline

Go Breaker Depth Index = sqrt(8/3*((Water Depth at Breaking/(Setup at the Still-Water Shore Line-Set Down at the Breaker Point))-1))

Shoreward Displacement of Shoreline

Go Shoreward Displacement of the Shoreline = Setup at the Still-Water Shore Line/(tan(Beach Slope)-Cross-Shore Balance Momentum)

Wave Height given Cross-Shore Component

Go Wave Height = sqrt((16*Coastal Cross-Shore Component)/(3*Water Density*[g]*Water Depth))

Water Depth at Breaking given Setdown at Breaker Point at Still-Water Shoreline

Go Water Depth at Breaking = (Setup at the Still-Water Shore Line-Set Down at the Breaker Point)/(1/(1+(8/(3*Coastal Breaker Depth Index^2))))

Setdown at Breaker Point at Still-Water Shoreline

Go Set Down at the Breaker Point = Setup at the Still-Water Shore Line-(1/(1+(8/(3*Coastal Breaker Depth Index^2))))*Water Depth at Breaking

Setup at Still-Water Shoreline

Go Setup at the Still-Water Shore Line = Set Down at the Breaker Point+(1/(1+(8/(3*Coastal Breaker Depth Index^2))))*Water Depth at Breaking

Setup at Mean Shoreline

Go Setup at the Mean Shoreline = Setup at the Still-Water Shore Line+(Cross-Shore Balance Momentum*Shoreward Displacement of the Shoreline)

Water Depth given Cross Shore Component

Go Water Depth = Coastal Cross-Shore Component/((3/16)*Water Density*[g]*Wave Height^2)

Cross-Shore Component of Cross-Shore directed Radiation Stress

Go Coastal Cross-Shore Component = (3/16)*Water Density*[g]*Water Depth*Wave Height^2

Beach Slope given Nonbreaking Upper Limit of Runup

Go Beach Slope = pi/2*(Wave Runup/Deepwater Wave Height of Ocean*(2*pi)^0.5)^4

Deepwater Wave Height given Nonbreaking Upper Limit of Runup on Uniform Slope

Go Deepwater Wave Height = Wave Runup/((2*pi)^0.5*(pi/2*Beach Slope)^(1/4))

Nonbreaking Upper Limit of Runup on Uniform Slope

Go Wave Runup = Deepwater Wave Height*(2*pi)^0.5*(pi/(2*Beach Slope))^(1/4)

Surf Similarity Parameter given Wave Runup above Mean Water Level

Go Deepwater Surf Similarity Parameter = Wave Runup/Deepwater Wave Height

Deepwater Wave Height given Wave Runup above Mean Water Level

Go Deepwater Wave Height = Wave Runup/Deepwater Surf Similarity Parameter

Wave Runup above Mean Water Level

Go Wave Runup = Deepwater Wave Height*Deepwater Surf Similarity Parameter

Mean Water Surface Elevation given Total Water Depth

Go Mean Water Surface Elevation = Coastal Water Depth-Still-Water Depth

Still Water Depth given Total Water Depth

Go Still-Water Depth = Coastal Water Depth-Mean Water Surface Elevation

Total Water Depth

Go Coastal Water Depth = Still-Water Depth+Mean Water Surface Elevation

Wave Height given Mean Water Surface Elevation Set down for Regular Waves Formula

Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast))
H = sqrt(η'_o*8*sinh(4*pi*d/λ)/(2*pi/λ))

What is Wave Runup & Wave Setup and Setdown?

Wave runup is the maximum vertical extent of wave uprush on a beach or structure above the still water level (SWL). It is the sum of wave set-up and swash uprush (see Swash Zone Dynamics) and must be added to the water level reached as a result of tides and wind set-up.
The wave setup is the increase in mean water level due to the presence of breaking waves. Similarly, wave set down is a wave-induced decrease of the mean water level before the waves break.
The wave setdown is a wave-induced decrease of the mean water level before the waves break (during the shoaling process). For short, the whole phenomenon is often denoted as wave setup, including both increase and decrease of mean elevation.

Define Breaking Wave & cause of Regular Waves.

In fluid dynamics, a breaking wave or breaker is a wave whose amplitude reaches a critical level at which some process can suddenly start to occur causing large amounts of wave energy to be transformed into turbulent kinetic energy.
Waves are most commonly caused by wind. Wind-driven waves, or surface waves, are created by the friction between wind and surface water. As the wind blows across the surface of the ocean or a lake, the continual disturbance creates a wave crest. The gravitational pull of the Sun and Moon on the Earth causes waves.

How to Calculate Wave Height given Mean Water Surface Elevation Set down for Regular Waves?

Wave Height given Mean Water Surface Elevation Set down for Regular Waves calculator uses Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast)) to calculate the Wave Height, The Wave Height given Mean Water Surface Elevation Set down for Regular Waves formula is defined as the difference between the elevations of a crest and a neighbouring trough given the average height of a body of water’s surface. Wave Height is denoted by H symbol.

How to calculate Wave Height given Mean Water Surface Elevation Set down for Regular Waves using this online calculator? To use this online calculator for Wave Height given Mean Water Surface Elevation Set down for Regular Waves, enter Mean Water Surface Elevation of Coast (η'_o), Water Depth (d) & Wavelength of Coast (λ) and hit the calculate button. Here is how the Wave Height given Mean Water Surface Elevation Set down for Regular Waves calculation can be explained with given input values -> 2.986363 = sqrt(0.51*8*sinh(4*pi*1.05/26.8)/(2*pi/26.8)).

FAQ

What is Wave Height given Mean Water Surface Elevation Set down for Regular Waves?

The Wave Height given Mean Water Surface Elevation Set down for Regular Waves formula is defined as the difference between the elevations of a crest and a neighbouring trough given the average height of a body of water’s surface and is represented as H = sqrt(η'_o*8*sinh(4*pi*d/λ)/(2*pi/λ)) or Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast)). Mean Water Surface Elevation of Coast is the height, in relation to mean sea level of floods of various magnitudes and frequencies in the floodplains of coastal or riverine areas, Water Depth of the considered catchment is the depth as measured from the water level to the bottom of the considered water body & Wavelength of Coast is the distance between two successive crests or troughs of a wave.

How to calculate Wave Height given Mean Water Surface Elevation Set down for Regular Waves?

The Wave Height given Mean Water Surface Elevation Set down for Regular Waves formula is defined as the difference between the elevations of a crest and a neighbouring trough given the average height of a body of water’s surface is calculated using Wave Height = sqrt(Mean Water Surface Elevation of Coast*8*sinh(4*pi*Water Depth/Wavelength of Coast)/(2*pi/Wavelength of Coast)). To calculate Wave Height given Mean Water Surface Elevation Set down for Regular Waves, you need Mean Water Surface Elevation of Coast (η'_o), Water Depth (d) & Wavelength of Coast (λ). With our tool, you need to enter the respective value for Mean Water Surface Elevation of Coast, Water Depth & Wavelength of Coast and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.

How many ways are there to calculate Wave Height?

In this formula, Wave Height uses Mean Water Surface Elevation of Coast, Water Depth & Wavelength of Coast. We can use 1 other way(s) to calculate the same, which is/are as follows -

Wave Height = sqrt((16*Coastal Cross-Shore Component)/(3*Water Density*[g]*Water Depth))

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