Tangential Component of Inlet Velocity in Pelton Turbine Solution

STEP 0: Pre-Calculation Summary
Formula Used
Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine
Vti = Vr1+U
This formula uses 3 Variables
Variables Used
Tangential Inlet Velocity of Pelton - (Measured in Meter per Second) - The tangential inlet velocity of Pelton is a vector quantity and is given as the rate of displacement.
Inlet Relative Velocity of Pelton Turbine - (Measured in Meter per Second) - The Inlet Relative Velocity of Pelton Turbine is a vector quantity and is quantified as the rate of displacement.
Bucket Velocity of Pelton Turbine - (Measured in Meter per Second) - Bucket velocity of Pelton turbine is a vector quantity and is quantified as the rate of displacement.
STEP 1: Convert Input(s) to Base Unit
Inlet Relative Velocity of Pelton Turbine: 13.27 Meter per Second --> 13.27 Meter per Second No Conversion Required
Bucket Velocity of Pelton Turbine: 14.73 Meter per Second --> 14.73 Meter per Second No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Vti = Vr1+U --> 13.27+14.73
Evaluating ... ...
Vti = 28
STEP 3: Convert Result to Output's Unit
28 Meter per Second --> No Conversion Required
FINAL ANSWER
28 Meter per Second <-- Tangential Inlet Velocity of Pelton
(Calculation completed in 00.004 seconds)

Credits

Created by Suman Ray Pramanik
Indian Institute of Technology (IIT), Kanpur
Suman Ray Pramanik has created this Calculator and 50+ more calculators!
Verified by Anshika Arya
National Institute Of Technology (NIT), Hamirpur
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14 Pelton Turbine Calculators

Power of Pelton Turbine given Velocity
Go Power of Pelton Turbine = (1+K Factor for Pelton*cos(Outlet Bucket Angle of Pelton))*Mass Density*Volume Flow Rate for Pelton Turbine*Bucket Velocity of Pelton Turbine*(Velocity of Pelton Jet-Bucket Velocity of Pelton Turbine)
Wheel Efficiency of Pelton Turbine
Go Wheel Efficiency of Pelton Turbine = (2*(1+K Factor for Pelton*cos(Outlet Bucket Angle of Pelton))*(Velocity of Pelton Jet-Bucket Velocity of Pelton Turbine)*Bucket Velocity of Pelton Turbine)/(Velocity of Pelton Jet^2)
Power of Pelton Turbine
Go Power of Pelton Turbine = (1+K Factor for Pelton*cos(Outlet Bucket Angle of Pelton))*Mass Density*Volume Flow Rate for Pelton Turbine*Bucket Velocity of Pelton Turbine*Inlet Relative Velocity of Pelton Turbine
Energy per Unit Mass of Pelton Turbine
Go Energy per Unit Mass of Pelton Turbine = (Inlet Relative Velocity of Pelton Turbine+Outlet Relative Velocity of Pelton*cos(Outlet Bucket Angle of Pelton))*Bucket Velocity of Pelton Turbine
Tangential Component of Outlet Velocity in Pelton Turbine
Go Tangential Outlet Velocity of Pelton = Bucket Velocity of Pelton Turbine-Outlet Relative Velocity of Pelton*cos(Outlet Bucket Angle of Pelton)
Wheel Efficiency of Pelton Turbine given Power
Go Wheel Efficiency of Pelton Turbine = (2*Power of Pelton Turbine)/(Mass Density*Volume Flow Rate for Pelton Turbine*Velocity of Pelton Jet^2)
Energy per Unit Mass of Pelton
Go Energy per Unit Mass of Pelton = (Tangential Inlet Velocity of Pelton-Tangential Outlet Velocity of Pelton)*Bucket Velocity of Pelton Turbine
Coefficient of Velocity for Pelton Wheel
Go Coefficient of Velocity for Pelton = Velocity of Pelton Jet/sqrt(2*[g]*Pelton Head)
Absolute Velocity of Pelton Jet
Go Velocity of Pelton Jet = Coefficient of Velocity for Pelton*sqrt(2*[g]*Pelton Head)
Pelton Head
Go Pelton Head = Velocity of Pelton Jet^2/(2*[g]*Coefficient of Velocity for Pelton^2)
Tangential Component of Inlet Velocity in Pelton Turbine
Go Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine
Inlet Relative Velocity of Pelton
Go Inlet Relative Velocity of Pelton Turbine = Velocity of Pelton Jet-Bucket Velocity of Pelton Turbine
Bucket Velocity of Pelton Turbine
Go Bucket Velocity of Pelton Turbine = Velocity of Pelton Jet-Inlet Relative Velocity of Pelton Turbine
Outlet Relative Velocity of Pelton
Go Outlet Relative Velocity of Pelton = K Factor for Pelton*Inlet Relative Velocity of Pelton Turbine

Tangential Component of Inlet Velocity in Pelton Turbine Formula

Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine
Vti = Vr1+U

What is the tangential velocity?

The tangential inlet velocity of the Pelton is a vector quantity and is given as the rate of displacement. The tangential velocity is the tangential component of the absolute jet velocity at the inlet. It decides the energy delivered by the fluid per unit mass.

How to Calculate Tangential Component of Inlet Velocity in Pelton Turbine?

Tangential Component of Inlet Velocity in Pelton Turbine calculator uses Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine to calculate the Tangential Inlet Velocity of Pelton, The Tangential Component of Inlet Velocity in Pelton Turbine is a vector quantity and is given as the rate of displacement. Tangential Inlet Velocity of Pelton is denoted by Vti symbol.

How to calculate Tangential Component of Inlet Velocity in Pelton Turbine using this online calculator? To use this online calculator for Tangential Component of Inlet Velocity in Pelton Turbine, enter Inlet Relative Velocity of Pelton Turbine (Vr1) & Bucket Velocity of Pelton Turbine (U) and hit the calculate button. Here is how the Tangential Component of Inlet Velocity in Pelton Turbine calculation can be explained with given input values -> 28.27 = 13.27+14.73.

FAQ

What is Tangential Component of Inlet Velocity in Pelton Turbine?
The Tangential Component of Inlet Velocity in Pelton Turbine is a vector quantity and is given as the rate of displacement and is represented as Vti = Vr1+U or Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine. The Inlet Relative Velocity of Pelton Turbine is a vector quantity and is quantified as the rate of displacement & Bucket velocity of Pelton turbine is a vector quantity and is quantified as the rate of displacement.
How to calculate Tangential Component of Inlet Velocity in Pelton Turbine?
The Tangential Component of Inlet Velocity in Pelton Turbine is a vector quantity and is given as the rate of displacement is calculated using Tangential Inlet Velocity of Pelton = Inlet Relative Velocity of Pelton Turbine+Bucket Velocity of Pelton Turbine. To calculate Tangential Component of Inlet Velocity in Pelton Turbine, you need Inlet Relative Velocity of Pelton Turbine (Vr1) & Bucket Velocity of Pelton Turbine (U). With our tool, you need to enter the respective value for Inlet Relative Velocity of Pelton Turbine & Bucket Velocity of Pelton Turbine and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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