Specific Weight of Liquid given Velocity Gradient with Shear Stress Solution

STEP 0: Pre-Calculation Summary
Formula Used
Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance)
γf = (2*VG*μviscosity)/(dhbydx*dradial)
This formula uses 5 Variables
Variables Used
Specific Weight of Liquid - (Measured in Newton per Cubic Meter) - Specific Weight of Liquid represents the force exerted by gravity on a unit volume of a fluid.
Velocity Gradient - (Measured in Meter per Second) - Velocity Gradient is the difference in velocity between the adjacent layers of the fluid.
Dynamic Viscosity - (Measured in Pascal Second) - The Dynamic Viscosity of a fluid is the measure of its resistance to flow when an external force is applied.
Piezometric Gradient - Piezometric Gradient is defined as variation of piezometric head with respect to distance in along the pipe length.
Radial Distance - (Measured in Meter) - Radial distance is defined as distance between whisker sensor's pivot point to whisker-object contact point.
STEP 1: Convert Input(s) to Base Unit
Velocity Gradient: 76.6 Meter per Second --> 76.6 Meter per Second No Conversion Required
Dynamic Viscosity: 10.2 Poise --> 1.02 Pascal Second (Check conversion here)
Piezometric Gradient: 10 --> No Conversion Required
Radial Distance: 9.2 Meter --> 9.2 Meter No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
γf = (2*VG*μviscosity)/(dhbydx*dradial) --> (2*76.6*1.02)/(10*9.2)
Evaluating ... ...
γf = 1.69852173913043
STEP 3: Convert Result to Output's Unit
1.69852173913043 Newton per Cubic Meter -->0.00169852173913043 Kilonewton per Cubic Meter (Check conversion here)
FINAL ANSWER
0.00169852173913043 0.001699 Kilonewton per Cubic Meter <-- Specific Weight of Liquid
(Calculation completed in 00.004 seconds)

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15 Laminar Flow Through Inclined Pipes Calculators

Radius of Elemental Section of Pipe given Flow Velocity of Stream
Go Radial Distance = sqrt((Inclined Pipes Radius^2)+Velocity of Liquid/((Specific Weight of Liquid/(4*Dynamic Viscosity))*Piezometric Gradient))
Radius of Pipe for Flow Velocity of Stream
Go Inclined Pipes Radius = sqrt((Radial Distance^2)-((Velocity of Liquid*4*Dynamic Viscosity)/(Specific Weight of Liquid*Piezometric Gradient)))
Specific Weight of Liquid given Flow Velocity of Stream
Go Specific Weight of Liquid = Velocity of Liquid/((1/(4*Dynamic Viscosity))*Piezometric Gradient*(Inclined Pipes Radius^2-Radial Distance^2))
Piezometric Gradient given Flow Velocity of Stream
Go Piezometric Gradient = Velocity of Liquid/(((Specific Weight of Liquid)/(4*Dynamic Viscosity))*(Inclined Pipes Radius^2-Radial Distance^2))
Dynamic Viscosity given Flow Velocity of Stream
Go Dynamic Viscosity = (Specific Weight of Liquid/((4*Velocity of Liquid))*Piezometric Gradient*(Inclined Pipes Radius^2-Radial Distance^2))
Flow Velocity of Stream
Go Velocity of Liquid = (Specific Weight of Liquid/(4*Dynamic Viscosity))*Piezometric Gradient*(Inclined Pipes Radius^2-Radial Distance^2)
Piezometric Gradient given Velocity Gradient with Shear Stress
Go Piezometric Gradient = Velocity Gradient/((Specific Weight of Liquid/Dynamic Viscosity)*(0.5*Radial Distance))
Radius of Elemental Section of Pipe given Velocity Gradient with Shear Stress
Go Radial Distance = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Specific Weight of Liquid)
Specific Weight of Liquid given Velocity Gradient with Shear Stress
Go Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance)
Velocity Gradient given Piezometric Gradient with Shear Stress
Go Velocity Gradient = (Specific Weight of Liquid/Dynamic Viscosity)*Piezometric Gradient*0.5*Radial Distance
Dynamic Viscosity given Velocity Gradient with Shear Stress
Go Dynamic Viscosity = (Specific Weight of Liquid/Velocity Gradient)*Piezometric Gradient*0.5*Radial Distance
Radius of Elemental Section of Pipe given Shear Stress
Go Radial Distance = (2*Shear Stress)/(Specific Weight of Liquid*Piezometric Gradient)
Specific Weight of Fluid given Shear Stress
Go Specific Weight of Liquid = (2*Shear Stress)/(Radial Distance*Piezometric Gradient)
Piezometric Gradient given Shear Stress
Go Piezometric Gradient = (2*Shear Stress)/(Specific Weight of Liquid*Radial Distance)
Shear Stresses
Go Shear Stress = Specific Weight of Liquid*Piezometric Gradient*Radial Distance/2

Specific Weight of Liquid given Velocity Gradient with Shear Stress Formula

Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance)
γf = (2*VG*μviscosity)/(dhbydx*dradial)

What is Specific Weight of Liquid ?

Specific weight, sometimes referred to as unit weight, is simply the weight of fluid per unit volume. It is usually denoted by the Greek letter γ (gamma) and has dimensions of force per unit volume.

How to Calculate Specific Weight of Liquid given Velocity Gradient with Shear Stress?

Specific Weight of Liquid given Velocity Gradient with Shear Stress calculator uses Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance) to calculate the Specific Weight of Liquid, The Specific Weight of Liquid given Velocity Gradient with Shear Stress is defined as weight per unit volume of liquid in the stream. Specific Weight of Liquid is denoted by γf symbol.

How to calculate Specific Weight of Liquid given Velocity Gradient with Shear Stress using this online calculator? To use this online calculator for Specific Weight of Liquid given Velocity Gradient with Shear Stress, enter Velocity Gradient (VG), Dynamic Viscosity viscosity), Piezometric Gradient (dhbydx) & Radial Distance (dradial) and hit the calculate button. Here is how the Specific Weight of Liquid given Velocity Gradient with Shear Stress calculation can be explained with given input values -> 1.7E-6 = (2*76.6*1.02)/(10*9.2).

FAQ

What is Specific Weight of Liquid given Velocity Gradient with Shear Stress?
The Specific Weight of Liquid given Velocity Gradient with Shear Stress is defined as weight per unit volume of liquid in the stream and is represented as γf = (2*VG*μviscosity)/(dhbydx*dradial) or Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance). Velocity Gradient is the difference in velocity between the adjacent layers of the fluid, The Dynamic Viscosity of a fluid is the measure of its resistance to flow when an external force is applied, Piezometric Gradient is defined as variation of piezometric head with respect to distance in along the pipe length & Radial distance is defined as distance between whisker sensor's pivot point to whisker-object contact point.
How to calculate Specific Weight of Liquid given Velocity Gradient with Shear Stress?
The Specific Weight of Liquid given Velocity Gradient with Shear Stress is defined as weight per unit volume of liquid in the stream is calculated using Specific Weight of Liquid = (2*Velocity Gradient*Dynamic Viscosity)/(Piezometric Gradient*Radial Distance). To calculate Specific Weight of Liquid given Velocity Gradient with Shear Stress, you need Velocity Gradient (VG), Dynamic Viscosity viscosity), Piezometric Gradient (dhbydx) & Radial Distance (dradial). With our tool, you need to enter the respective value for Velocity Gradient, Dynamic Viscosity, Piezometric Gradient & Radial Distance 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 Specific Weight of Liquid?
In this formula, Specific Weight of Liquid uses Velocity Gradient, Dynamic Viscosity, Piezometric Gradient & Radial Distance. We can use 2 other way(s) to calculate the same, which is/are as follows -
  • Specific Weight of Liquid = (2*Shear Stress)/(Radial Distance*Piezometric Gradient)
  • Specific Weight of Liquid = Velocity of Liquid/((1/(4*Dynamic Viscosity))*Piezometric Gradient*(Inclined Pipes Radius^2-Radial Distance^2))
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