Shear stress developed for turbulent flow in pipes Calculator

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Physics	Fluid Mechanics ↺
Fluid-Mechanics	Turbulent flow ↺

✖Shear velocity, also called friction velocity, is a form by which a shear stress may be re-written in units of velocity.ⓘ Shear Velocity [V_* ]			+10% -10%
✖The density of fluid is the mass per unit volume considered in the relation falling resistance method.ⓘ density of fluid [ρ _f]			+10% -10%

✖The Shear stress is force tending to cause deformation of a material by slippage along a plane or planes parallel to the imposed stress.ⓘ Shear stress developed for turbulent flow in pipes [𝜏 ]

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Shear stress developed for turbulent flow in pipes

Maiarutselvan V

PSG College of Technology (PSGCT), Coimbatore

Maiarutselvan V has created this Calculator and 300+ more calculators!

Sanjay Krishna

Amrita School of Engineering (ASE), Vallikavu

Sanjay Krishna has verified this Calculator and 200+ more calculators!

< 11 Other formulas that you can solve using the same Inputs

Velocity Distribution in a Rough Turbulent Flow

Velocity at a Point 'y' above the Head=5.75*Shear Velocity*log10(30*Height Above the Bed/Equivalent Sand-Grain Roughness) GO

Viscosity of fluid or oil in falling sphere resistance method

viscosity of fluid=([g]*(diameter of sphere^2)/(18*velocity of sphere))*(density of sphere-density of fluid) GO

Average height of irregularities for turbulent flow in pipes

average height irregularities=(roughness reynold number*Kinematic viscosity )/Shear Velocity GO

Roughness Reynold number for turbulent flow in pipes

roughness reynold number=(Shear Velocity*average height irregularities)/Kinematic viscosity GO

Shear stress for local drag coefficient in boundary layer flows

Shear Stress=local coefficient of drag*0.5*density of fluid*(Freestream Velocity^2) GO

Power lost due to sudden enlargement

Power=(density of fluid*[g]*Discharge*loss of head sudden enlargement)/1000 GO

Head loss due to friction for power required and discharge in turbulent flow

head loss due to friction=(Power*1000)/(density of fluid*[g]*Discharge) GO

Discharge through pipe for power required and head loss in turbulent flow

Discharge=(Power*1000)/(density of fluid*[g]*head loss due to friction) GO

Power required to maintain the turbulent flow

Power=(density of fluid*[g]*Discharge*head loss due to friction)/1000 GO

Buoyant force in falling sphere resistance method

Buoyant Force=(pi/6)*(diameter of sphere^3)*density of fluid*[g] GO

Shear velocity for turbulent flow in pipes

Shear Velocity=sqrt(Shear Stress/density of fluid) GO

< 11 Other formulas that calculate the same Output

Shear stress on circular fillet weld subjected to Torsion

Shear Stress=2*Torque acting on rod/(pi*Throat thickness*Equivalent/Nominal Diameter of Particle^2) GO

Shear Stress When Dynamic Viscosity Of A Fluid Is Given

Shear Stress=Dynamic viscosity*(velocity of moving plate)/(distance between plates) GO

Shear Stress for long fillet weld subjected to torsion

Shear Stress=3*Torque acting on rod/(Throat thickness*(Length of weld^2)) GO

Shear stress produced if strain energy stored in a body due to shear stress is known

Shear Stress=sqrt((2*Modulus of rigidity*Strain Energy)/(Volume)) GO

Shear stress Produced if work done by gradually applied shear force is known

Shear Stress=sqrt((2*Modulus of rigidity*Work Done)/(Volume)) GO

Shear Stress due to torsional moment

Shear Stress=Torque*Distance/Polar moment of inertia GO

Shear-stress distribution.

Shear Stress=viscosity coefficient*Velocity Gradient GO

Shear stress if obliquity is given

Shear Stress=tan(angle of obliquity)*Normal stress GO

Shear stress if shear resistance is known

Shear Stress=Shear Resistance/Shear Area GO

Shear Stress of Circular Beam

Shear Stress=4*Shearing force/3*Area GO

Shear Stress

Shear Stress=Tangential Force/Area GO

Shear stress developed for turbulent flow in pipes Formula

Shear Stress=(Shear Velocity^2)*density of fluid
𝜏 =(V<sub>*</sub> ^2)*ρ <sub>f</sub>

More formulas

Shear velocity for turbulent flow in pipes GO

Roughness Reynold number for turbulent flow in pipes GO

Average height of irregularities for turbulent flow in pipes GO

Power required to maintain the turbulent flow GO

Head loss due to friction for power required and discharge in turbulent flow GO

Discharge through pipe for power required and head loss in turbulent flow GO

What is turbulent flow?

The turbulence or turbulent flow is fluid motion characterized by chaotic changes in pressure and flow velocity. It is in contrast to a laminar flow, which occurs when a fluid flows in parallel layers, with no disruption between those layers.

What is the difference between laminar flow and turbulent flow?

Laminar flow or streamline flow in pipes (or tubes) occurs when a fluid flows in parallel layers, with no disruption between the layers. Turbulent flow is a flow regime characterized by chaotic property changes. This includes a rapid variation of pressure and flows velocity in space and time.

How to Calculate Shear stress developed for turbulent flow in pipes?

Shear stress developed for turbulent flow in pipes calculator uses Shear Stress=(Shear Velocity^2)*density of fluid to calculate the Shear Stress, The Shear stress developed for turbulent flow in pipes formula while considering the square of shear velocity by the density of the fluid. Shear Stress and is denoted by 𝜏 symbol.

How to calculate Shear stress developed for turbulent flow in pipes using this online calculator? To use this online calculator for Shear stress developed for turbulent flow in pipes, enter Shear Velocity (V_* ) and density of fluid (ρ _f) and hit the calculate button. Here is how the Shear stress developed for turbulent flow in pipes calculation can be explained with given input values -> 1000 = (10^2)*10.

FAQ

What is Shear stress developed for turbulent flow in pipes?

The Shear stress developed for turbulent flow in pipes formula while considering the square of shear velocity by the density of the fluid and is represented as 𝜏 =(V_* ^2)*ρ _f or Shear Stress=(Shear Velocity^2)*density of fluid. Shear velocity, also called friction velocity, is a form by which a shear stress may be re-written in units of velocity and The density of fluid is the mass per unit volume considered in the relation falling resistance method.

How to calculate Shear stress developed for turbulent flow in pipes?

The Shear stress developed for turbulent flow in pipes formula while considering the square of shear velocity by the density of the fluid is calculated using Shear Stress=(Shear Velocity^2)*density of fluid. To calculate Shear stress developed for turbulent flow in pipes, you need Shear Velocity (V_* ) and density of fluid (ρ _f). With our tool, you need to enter the respective value for Shear Velocity and density of fluid 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 Shear Stress?

In this formula, Shear Stress uses Shear Velocity and density of fluid. We can use 11 other way(s) to calculate the same, which is/are as follows -

Shear Stress=2*Torque acting on rod/(pi*Throat thickness*Equivalent/Nominal Diameter of Particle^2)
Shear Stress=3*Torque acting on rod/(Throat thickness*(Length of weld^2))
Shear Stress=Tangential Force/Area
Shear Stress=4*Shearing force/3*Area
Shear Stress=Dynamic viscosity*(velocity of moving plate)/(distance between plates)
Shear Stress=Shear Resistance/Shear Area
Shear Stress=tan(angle of obliquity)*Normal stress
Shear Stress=viscosity coefficient*Velocity Gradient
Shear Stress=sqrt((2*Modulus of rigidity*Work Done)/(Volume))
Shear Stress=sqrt((2*Modulus of rigidity*Strain Energy)/(Volume))
Shear Stress=Torque*Distance/Polar moment of inertia

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