Velocity Gradient given Shear Stress Solution

STEP 0: Pre-Calculation Summary
Formula Used
Velocity Gradient = Shear Stress/Dynamic Viscosity
dvdy = τ/μ
This formula uses 3 Variables
Variables Used
Velocity Gradient - (Measured in Hertz) - Velocity Gradient is difference in velocity between adjacent layers of the fluid.
Shear Stress - (Measured in Pascal) - Shear stress is defined as a force per unit area, acting parallel to the fluid layers.
Dynamic Viscosity - (Measured in Pascal Second) - Dynamic Viscosity is the resistance to movement of one layer of a fluid over another.
STEP 1: Convert Input(s) to Base Unit
Shear Stress: 800 Newton per Square Meter --> 800 Pascal (Check conversion ​here)
Dynamic Viscosity: 80 Newton Second per Square Meter --> 80 Pascal Second (Check conversion ​here)
STEP 2: Evaluate Formula
Substituting Input Values in Formula
dvdy = τ/μ --> 800/80
Evaluating ... ...
dvdy = 10
STEP 3: Convert Result to Output's Unit
10 Hertz -->10 Cycle per Second (Check conversion ​here)
FINAL ANSWER
10 Cycle per Second <-- Velocity Gradient
(Calculation completed in 00.004 seconds)

Credits

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Created by Alithea Fernandes
Don Bosco College of Engineering (DBCE), Goa
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Verified by Rithik Agrawal
National Institute of Technology Karnataka (NITK), Surathkal
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25 Properties of Fluid Calculators

Capillary Rise or Depression when Tube is inserted in two Liquids
​ Go Capillary Rise (or Depression) = (2*Surface Tension*cos(Contact Angle))/(Radius of Tube*Specific Weight of Water in KN per cubic meter*(Specific Gravity of Liquid 1-Specific Gravity of Liquid 2)*1000)
Capillary Rise or Depression when two Vertical Parallel Plates are Partially Immersed in Liquid
​ Go Capillary Rise (or Depression) = (2*Surface Tension*(cos(Contact Angle)))/(Specific Weight of Water in KN per cubic meter*Specific Gravity of Fluid*Distance between Vertical Plates)
Capillary Rise or Depression of Fluid
​ Go Capillary Rise (or Depression) = (2*Surface Tension*cos(Contact Angle))/(Specific Gravity of Fluid*Radius of Tube*Specific Weight of Water in KN per cubic meter*1000)
Capillary Rise when Contact is between Water and Glass
​ Go Capillary Rise (or Depression) = (2*Surface Tension)/(Radius of Tube*Specific Weight of Water in KN per cubic meter*1000)
Absolute Pressure using Equation of State given Specific Weight
​ Go Absolute Pressure by Specific Weight = Gas Constant*Specific Weight of Liquid in Piezometer*Absolute Temperature of Gas
Gas Constant using Equation of State
​ Go Gas Constant = Absolute Pressure by Gas Density/(Density of Gas*Absolute Temperature of Gas)
Absolute Temperature of Gas
​ Go Absolute Temperature of Gas = Absolute Pressure by Gas Density/(Gas Constant*Density of Gas)
Absolute Pressure using Gas Density
​ Go Absolute Pressure by Gas Density = Absolute Temperature of Gas*Density of Gas*Gas Constant
Bulk Modulus of Elasticity
​ Go Bulk Modulus of Elasticity = (Change in Pressure/(Change in Volume/Fluid Volume))
Velocity of Fluid given Shear Stress
​ Go Fluid Velocity = (Distance between Fluid Layers*Shear Stress)/Dynamic Viscosity
Compressibility of Fluid
​ Go Compressibility of Fluid = ((Change in Volume/Fluid Volume)/Change in Pressure)
Specific Gravity of Fluid
​ Go Specific Gravity of Fluid = Specific Weight of Liquid in Piezometer/Specific Weight of Standard Fluid
Mass Density given Specific Weight
​ Go Mass Density of Fluid = Specific Weight of Liquid in Piezometer/Acceleration due to Gravity
Volume of Fluid given Specific Weight
​ Go Volume = Weight of Liquid/Specific Weight of Liquid in Piezometer
Pressure Intensity inside Soap Bubble
​ Go Internal Pressure Intensity = (4*Surface Tension)/Radius of Tube
Pressure Intensity inside Droplet
​ Go Internal Pressure Intensity = (2*Surface Tension)/Radius of Tube
Dynamic Viscosity using Kinematic Viscosity
​ Go Dynamic Viscosity = Mass Density of Fluid*Kinematic Viscosity
Mass Density given Viscosity
​ Go Mass Density of Fluid = Dynamic Viscosity/Kinematic Viscosity
Pressure Intensity inside Liquid Jet
​ Go Internal Pressure Intensity = Surface Tension/Radius of Tube
Velocity Gradient
​ Go Velocity Gradient = Change in Velocity/Change in Distance
Shear Stress between any two thin sheets of Fluid
​ Go Shear Stress = Velocity Gradient*Dynamic Viscosity
Velocity Gradient given Shear Stress
​ Go Velocity Gradient = Shear Stress/Dynamic Viscosity
Dynamic Viscosity given Shear Stress
​ Go Dynamic Viscosity = Shear Stress/Velocity Gradient
Compressibility of Fluid given Bulk Modulus of Elasticity
​ Go Compressibility of Fluid = 1/Bulk Modulus of Elasticity
Specific Volume of Fluid
​ Go Specific Volume = 1/Mass Density of Fluid

Velocity Gradient given Shear Stress Formula

Velocity Gradient = Shear Stress/Dynamic Viscosity
dvdy = τ/μ

What is Viscosity?

Viscosity is a measure of the resistance of a fluid to deform under shear stress. It is commonly perceived as resistance to pouring. It is measured by a viscometer, of which there are various designs commonly based on the time taken to flow through an orifice or a capillary tube when at a standard temperature.

How to Calculate Velocity Gradient given Shear Stress?

Velocity Gradient given Shear Stress calculator uses Velocity Gradient = Shear Stress/Dynamic Viscosity to calculate the Velocity Gradient, The Velocity Gradient given Shear Stress formula is defined as the difference in Velocity between adjacent layers of the fluid. It is the ratio between change in velocity and change in distance between the layers. Velocity Gradient is denoted by dvdy symbol.

How to calculate Velocity Gradient given Shear Stress using this online calculator? To use this online calculator for Velocity Gradient given Shear Stress, enter Shear Stress (τ) & Dynamic Viscosity (μ) and hit the calculate button. Here is how the Velocity Gradient given Shear Stress calculation can be explained with given input values -> 10 = 800/80.

FAQ

What is Velocity Gradient given Shear Stress?
The Velocity Gradient given Shear Stress formula is defined as the difference in Velocity between adjacent layers of the fluid. It is the ratio between change in velocity and change in distance between the layers and is represented as dvdy = τ/μ or Velocity Gradient = Shear Stress/Dynamic Viscosity. Shear stress is defined as a force per unit area, acting parallel to the fluid layers & Dynamic Viscosity is the resistance to movement of one layer of a fluid over another.
How to calculate Velocity Gradient given Shear Stress?
The Velocity Gradient given Shear Stress formula is defined as the difference in Velocity between adjacent layers of the fluid. It is the ratio between change in velocity and change in distance between the layers is calculated using Velocity Gradient = Shear Stress/Dynamic Viscosity. To calculate Velocity Gradient given Shear Stress, you need Shear Stress (τ) & Dynamic Viscosity (μ). With our tool, you need to enter the respective value for Shear Stress & Dynamic Viscosity 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 Velocity Gradient?
In this formula, Velocity Gradient uses Shear Stress & Dynamic Viscosity. We can use 1 other way(s) to calculate the same, which is/are as follows -
  • Velocity Gradient = Change in Velocity/Change in Distance
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