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
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11 Other formulas that you can solve using the same Inputs

Effort applied parallel to inclined plane to move the body in downward direction considering friction
Effort required to move a body on inclined surface considering friction=Weight of body on which frictional force is applied*(sin(Angle of inclination of the plane to the horizontal)-(Coefficient of Friction*cos(Angle of inclination of the plane to the horizontal))) GO
Effort applied parallel to inclined plane to move the body in upward direction considering friction
Effort required to move a body on inclined surface considering friction=Weight of body on which frictional force is applied*(sin(Angle of inclination of the plane to the horizontal)+(Coefficient of Friction*cos(Angle of inclination of the plane to the horizontal))) GO
Force required to lower the load by a screw jack when weight of load, helix angle and coefficient of friction is known
Force=Weight of Load*((Coefficient of Friction*cos(Helix Angle))-sin(Helix Angle))/(cos(Helix Angle)+(Coefficient of Friction*sin(Helix Angle))) GO
Force at circumference of the screw when weight of load, helix angle and coefficient of friction is known
Force=Weight*((sin(Helix Angle)+(Coefficient of Friction*cos(Helix Angle)))/(cos(Helix Angle)-(Coefficient of Friction*sin(Helix Angle)))) GO
Total frictional torque on conical pivot bearing considering uniform pressure
Torque=2*Coefficient of Friction*Load transmitted over the bearing surface*Radius of the shaft*cosec(Semi angle of cone)/3 GO
Total frictional torque on conical pivot bearing considering uniform wear
Torque=Coefficient of Friction*Load transmitted over the bearing surface*Radius of the shaft*cosec(Semi angle of cone)/2 GO
Total frictional torque on conical pivot bearing considering uniform pressure when slant height of cone is given
Torque=2*Coefficient of Friction*Load transmitted over the bearing surface*Radius of the shaft*Slant Height/3 GO
Total frictional torque on flat pivot bearing considering uniform pressure
Torque=2*Coefficient of Friction*Load transmitted over the bearing surface*Radius of bearing surface/3 GO
Total frictional torque on flat pivot bearing considering uniform wear
Torque=Coefficient of Friction*Load transmitted over the bearing surface*Radius of bearing surface/2 GO
Total frictional torque on conical pivot bearing considering uniform wear when slant height of cone
Torque=Coefficient of Friction*Load transmitted over the bearing surface*Slant Height/2 GO
Roll Separating Force
Roll Separating Force =Length*Width*(1+Coefficient of Friction*Length/2*Height) GO

10 Other formulas that calculate the same Output

Diameter of Pipe when Head Loss over the Length of Pipe with Discharge is Given
Diameter of Pipe=((128*Dynamic viscosity*Discharge*Length of Pipe)/(pi*specific weight of liquid*Head loss))^(1/4) GO
Diameter of Pipe When Head Loss due to Laminar Flow is Given
Diameter of Pipe=((128*Viscous Force*Rate of flow*Length of Pipe)/(specific weight of liquid*pi*Head loss))^(1/4) GO
Diameter of Pipe when Head Loss over the Length of Pipe is Given
Diameter of Pipe=sqrt((32*Dynamic viscosity*Mean velocity*Length of Pipe)/(specific weight of liquid*Head loss)) GO
Diameter of the equivalent pipe
Diameter of Pipe=((4*16*(Discharge^2)*Coefficient of Friction*Length of Pipe)/((pi^2)*2*loss of head*[g]))^(1/5) GO
Diameter of pipe for difference in pressure in viscous flow
Diameter of Pipe=sqrt((32*viscosity of oil*Average Velocity*Length)/(difference in pressure viscous flow )) GO
Diameter of Pipe when Head Loss due to Frictional Resistance is Given
Diameter of Pipe=Darcy friction factor*Length of Pipe*(Mean velocity^2)/(2*[g]*head loss due to friction) GO
Diameter of pipe for loss of pressure head in viscous flow
Diameter of Pipe=sqrt((32*viscosity of fluid*Velocity*Length)/(Density*[g]*loss of peizometric head)) GO
Diameter of Pipe when Pressure Drop over the Length of Pipe with Discharge is Given
Diameter of Pipe=((128*Dynamic viscosity*Discharge*Length of Pipe)/Pressure Difference*pi)^(1/4) GO
Diameter of Pipe when Pressure Drop over the Length of Pipe is Given
Diameter of Pipe=sqrt((32*Dynamic viscosity*Mean velocity*Length of Pipe)/Pressure Difference) GO
Diameter of Pipe when Friction Factor is Given
Diameter of Pipe=(64*Dynamic viscosity)/(Darcy friction factor*Mean velocity*density of fluid) GO

Diameter of pipe for head loss due to friction in viscous flow Formula

Diameter of Pipe=(4*Coefficient of Friction*Length of Pipe*(Average Velocity^2))/(loss of head*2*[g])
D=(4*μ*L*(v^2))/(h L*2*[g])
More formulas
Difference of pressure for viscous or laminar flow GO
Diameter of pipe for difference in pressure in viscous flow GO
Length of pipe for difference of pressure in viscous flow GO
Velocity at any radius, radius of pipe, and maximum velocity GO
Maximum velocity at any radius with a velocity, and radius of pipe GO
Radius of pipe from maximum velocity and velocity at any radius GO
Loss of pressure head for viscous flow through circular pipe GO
Diameter of pipe for loss of pressure head in viscous flow GO
Length of pipe for loss of pressure head in viscous flow GO
Difference of pressure for viscous flow between two parallel plates GO
Length for difference of pressure in viscous flow between two parallel plates GO
Loss of pressure head for viscous flow between two parallel plates GO
Length for pressure head loss in viscous flow between two parallel plates GO
Shear stress in the fluid or oil of journal bearing GO
Thickness of oil film for speed and diameter of shaft in journal bearing GO
Diameter of shaft for speed and shear stress of fluid in journal bearing GO
Shear force or viscous resistance in journal bearing GO
Thickness of oil film for shear force in journal bearing GO
Speed of rotation for shear force in journal bearing GO
Torque required to overcome the shear force in journal bearing GO
Shear force for torque and diameter of shaft in journal bearing GO
Power absorbed in overcoming viscous resistance in journal bearing GO
Torque required considering power absorbed in journal bearing GO
Rotational speed considering power absorbed and torque in journal bearing GO
Torque required to overcome viscous resistance in foot-step bearing GO
Radius of shaft for torque required in foot-step bearing GO
Rotational speed for torque required in foot-step bearing GO
Thickness of oil film for torque required in foot-step bearing GO
Power absorbed in foot-step bearing GO
Torque required to overcome viscous resistance in collar bearing GO
External or outer radius of collar for total torque GO
Internal or inner radius of collar for total torque GO
Rotational speed for torque required in collar bearing GO
Power absorbed in collar bearing GO
Loss of head due to friction GO
Length of pipe for head loss due to friction in viscous flow GO
Viscosity of fluid or oil for movement of piston in dash-pot GO
Velocity of piston or body for movement of piston in dash-pot GO
Viscosity of fluid or oil for capillary tube method GO
Discharge in capillary tube method GO
Length of tube in capillary tube method GO
Diameter of capillary tube GO
Drag force in falling sphere resistance method GO
Velocity of sphere in falling sphere resistance method GO
Diameter of sphere in falling sphere resistance method GO
Viscosity of fluid or oil in falling sphere resistance method GO
Buoyant force in falling sphere resistance method GO
Density of fluid in falling sphere resistance method GO
Viscosity of fluid or oil in rotating cylinder method GO
Total torque measured by strain in rotating cylinder method GO
Angular speed of outer cylinder in rotating cylinder method GO

What is head loss due to friction in viscous flow?

Head loss is potential energy that is converted to kinetic energy. Head losses are due to the frictional resistance of the piping system (a pipe, valves, fittings, entrance, and exit losses). Unlike the velocity head, the friction head cannot be ignored in system calculations. Values vary as the square of the flow rate.

What is friction in viscous flow?

The amount of friction depends on the fluid viscosity and the velocity gradient (that is, the relative velocity between fluid layers). The velocity gradients are set up by the no-slip condition at the wall.

How to Calculate Diameter of pipe for head loss due to friction in viscous flow?

Diameter of pipe for head loss due to friction in viscous flow calculator uses Diameter of Pipe=(4*Coefficient of Friction*Length of Pipe*(Average Velocity^2))/(loss of head*2*[g]) to calculate the Diameter of Pipe, The Diameter of pipe for head loss due to friction in viscous flow formula is known while considering the coefficient of friction, average velocity, length, and loss of head. Diameter of Pipe and is denoted by D symbol.

How to calculate Diameter of pipe for head loss due to friction in viscous flow using this online calculator? To use this online calculator for Diameter of pipe for head loss due to friction in viscous flow, enter Coefficient of Friction (μ), Length of Pipe (L), Average Velocity (v) and loss of head (h L) and hit the calculate button. Here is how the Diameter of pipe for head loss due to friction in viscous flow calculation can be explained with given input values -> 2294.361 = (4*0.2*0.1*(75^2))/(1*2*[g]).

FAQ

What is Diameter of pipe for head loss due to friction in viscous flow?
The Diameter of pipe for head loss due to friction in viscous flow formula is known while considering the coefficient of friction, average velocity, length, and loss of head and is represented as D=(4*μ*L*(v^2))/(h L*2*[g]) or Diameter of Pipe=(4*Coefficient of Friction*Length of Pipe*(Average Velocity^2))/(loss of head*2*[g]). The Coefficient of Friction (μ) is the ratio defining the force that resists the motion of one body in relation to another body in contact with it. This ratio is dependent on material properties and most materials have a value between 0 and 1. , Length of Pipe describes the length of the pipe in which the liquid is flowing, Average Velocity useful when solving for the final velocity of an object with a known initial velocity. and The loss of head due to sudden enlargement turbulent eddies are formed at the corner of the enlargement of the pipe section. .
How to calculate Diameter of pipe for head loss due to friction in viscous flow?
The Diameter of pipe for head loss due to friction in viscous flow formula is known while considering the coefficient of friction, average velocity, length, and loss of head is calculated using Diameter of Pipe=(4*Coefficient of Friction*Length of Pipe*(Average Velocity^2))/(loss of head*2*[g]). To calculate Diameter of pipe for head loss due to friction in viscous flow, you need Coefficient of Friction (μ), Length of Pipe (L), Average Velocity (v) and loss of head (h L). With our tool, you need to enter the respective value for Coefficient of Friction, Length of Pipe, Average Velocity and loss of head 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 Diameter of Pipe?
In this formula, Diameter of Pipe uses Coefficient of Friction, Length of Pipe, Average Velocity and loss of head. We can use 10 other way(s) to calculate the same, which is/are as follows -
  • Diameter of Pipe=((128*Viscous Force*Rate of flow*Length of Pipe)/(specific weight of liquid*pi*Head loss))^(1/4)
  • Diameter of Pipe=sqrt((32*viscosity of oil*Average Velocity*Length)/(difference in pressure viscous flow ))
  • Diameter of Pipe=sqrt((32*viscosity of fluid*Velocity*Length)/(Density*[g]*loss of peizometric head))
  • Diameter of Pipe=((4*16*(Discharge^2)*Coefficient of Friction*Length of Pipe)/((pi^2)*2*loss of head*[g]))^(1/5)
  • Diameter of Pipe=sqrt((32*Dynamic viscosity*Mean velocity*Length of Pipe)/Pressure Difference)
  • Diameter of Pipe=sqrt((32*Dynamic viscosity*Mean velocity*Length of Pipe)/(specific weight of liquid*Head loss))
  • Diameter of Pipe=((128*Dynamic viscosity*Discharge*Length of Pipe)/(pi*specific weight of liquid*Head loss))^(1/4)
  • Diameter of Pipe=Darcy friction factor*Length of Pipe*(Mean velocity^2)/(2*[g]*head loss due to friction)
  • Diameter of Pipe=(64*Dynamic viscosity)/(Darcy friction factor*Mean velocity*density of fluid)
  • Diameter of Pipe=((128*Dynamic viscosity*Discharge*Length of Pipe)/Pressure Difference*pi)^(1/4)
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