Sending End Voltage Using Transmission Efficiency (Nominal pi-method) Calculator

Category	Engineering ↺

✖Receiving End Power is defined as the power at receiving end of the system.ⓘ Receiving End Power [Pr]			+10% -10%
✖Sending end theta is defined as the sending end theta.ⓘ Sending end theta [Ph-s]			+10% -10%
✖Sending end current is defined as the current at sending end.ⓘ Sending end current [Is]			+10% -10%
✖Transmission efficiency is the total sideband power by the total transmitted power.ⓘ Transmission efficiency [η]			+10% -10%

✖Sending end voltage is the voltage at the terminal of generator.ⓘ Sending End Voltage Using Transmission Efficiency (Nominal pi-method) [Vs]

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Urvi Rathod

Vishwakarma Government Engineering College (VGEC), Ahmedabad

Urvi Rathod has created this Calculator and 500+ more calculators!

Payal Priya

Birsa Institute of Technology (BIT), Sindri

Payal Priya has verified this Calculator and 500+ more calculators!

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

Resistance Using Transmission Efficiency (STL)

Resistance=((Receiving end voltage *Receiving end current *cos(Receiving end theta)/Transmission efficiency)-(Receiving end voltage *Receiving end current *cos(Receiving end theta)))/(Receiving end current ^2) GO

Losses Using Transmission Efficiency (STL)

Power Loss=((3*Receiving end voltage *Receiving end current *cos(Receiving end theta))/Transmission efficiency)-(3*Receiving end voltage *Receiving end current *cos(Receiving end theta)) GO

Receiving End Angle Using Transmission Efficiency (STL)

Receiving end theta=acos(Transmission efficiency*Sending End Voltage*Sending end current *cos(Sending end theta)/(Receiving end current *Receiving end voltage )) GO

Sending End Angle Using Transmission Efficiency (STL)

Sending end theta=acos(Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Transmission efficiency*Sending end current *Sending End Voltage)) GO

Receiving End Voltage Using Transmission Efficiency (STL)

Receiving end voltage =Transmission efficiency*Sending End Voltage*Sending end current *cos(Sending end theta)/(Receiving end current *cos(Receiving end theta)) GO

Receiving End Current Using Transmission Efficiency (STL)

Receiving end current =Transmission efficiency*Sending End Voltage*Sending end current *cos(Sending end theta)/(Receiving end voltage *cos(Receiving end theta)) GO

Sending End Voltage Using Transmission Efficiency (STL)

Sending End Voltage=Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Transmission efficiency*Sending end current *cos(Sending end theta)) GO

Sending End Current Using Transmission Efficiency (STL)

Sending end current =Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Transmission efficiency*Sending End Voltage*cos(Sending end theta)) GO

Transmission Efficiency (STL)

Transmission efficiency=Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Sending End Voltage*Sending end current *cos(Sending end theta)) GO

Sending End Voltage Using Losses (STL)

Sending End Voltage=((3*Receiving end voltage *Receiving end current *cos(Receiving end theta))-Power Loss)/(3*Sending end current *cos(Sending end theta)) GO

Losses Using Sending and Receiving Voltages (STL)

Power Loss=(Sending End Voltage*Sending end current *cos(Sending end theta))-(Receiving end voltage *Receiving end current *cos(Receiving end theta)) GO

< 11 Other formulas that calculate the same Output

Sending End Voltage Using Power Factor(STL)

Sending End Voltage=sqrt((((Receiving end voltage *cos(Receiving end theta))+(Receiving end current *Resistance))^2)+(((Receiving end voltage *sin(Receiving end theta))+(Receiving end current *capacitive reactance))^2)) GO

Sending End Voltage Using Transmission Efficiency (STL)

Sending End Voltage=Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Transmission efficiency*Sending end current *cos(Sending end theta)) GO

Sending End Voltage Using Losses (STL)

Sending End Voltage=((3*Receiving end voltage *Receiving end current *cos(Receiving end theta))-Power Loss)/(3*Sending end current *cos(Sending end theta)) GO

Sending End Voltage Using Transmission Efficiency (Nominal T-method)

Sending End Voltage=acos(Receiving End Power/(Transmission efficiency*3*Sending end current *cos(Sending end theta))) GO

Sending End Voltage Using Transmission Efficiency(ECM)

Sending End Voltage=Receiving End Power/(Transmission efficiency*3*Sending end current *cos(Sending end theta)) GO

Sending End Voltage Using Voltage Regulation (STL)

Sending End Voltage=(Voltage Regulation*Receiving end voltage )+Receiving end voltage GO

Sending End Voltage Using Sending End Power (STL)

Sending End Voltage=Sending End Power/(3*Sending end current *cos(Sending end theta)) GO

Sending End Voltage Using Impedance (STL)

Sending End Voltage=Receiving end voltage -(Receiving end current *Impedance) GO

Sending End Voltage Using Capacitive Voltage (Nominal T-method)

Sending End Voltage=Capacitive Voltage+((Sending end current *Impedance)/2) GO

Sending End Voltage Using Voltage Regulation (Nominal pi-method)

Sending End Voltage=Receiving end voltage *(Voltage Regulation+1) GO

Sending End Voltage Using Voltage Regulation (Nominal T-method)

Sending End Voltage=Receiving end voltage *(Voltage Regulation+1) GO

Sending End Voltage Using Transmission Efficiency (Nominal pi-method) Formula

Sending End Voltage=Receiving End Power/(3*cos(Sending end theta)*Sending end current )/Transmission efficiency
Vs=Pr/(3*cos(Ph-s)*Is)/η

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Transmission Efficiency (Nominal pi-method) GO

Receiving End Voltage Using Transmission Efficiency (Nominal pi-method) GO

Receiving End Current Using Transmission Efficiency (Nominal pi-method) GO

Receiving End Angle Using Transmission Efficiency (Nominal pi-method) GO

Sending End Angle Using Transmission Efficiency (Nominal pi-method) GO

Sending End Current Using Transmission Efficiency (Nominal pi-method) GO

Sending End Power Using Transmission Efficiency (Nominal pi-method) GO

Receiving End Power Using Transmission Efficiency (Nominal pi-method) GO

Sending End Power Using Transmission Efficiency (Nominal pi-method) GO

Losses Using Transmission Efficiency (Nominal pi-method) GO

Load Current Using Transmission Efficiency (Nominal pi-method) GO

Resistance Using Transmission Efficiency (Nominal pi-method) GO

Losses (Nominal pi-method) GO

Resistance Using Losses (Nominal pi-method) GO

Load Current Using Losses (Nominal pi-method) GO

Losses Using Sending End Power (Nominal pi-method) GO

Receiving End Current Using Sending End Power (Nominal pi-method) GO

Receiving End Voltage Using Sending End Power (Nominal pi-method) GO

Receiving End Angle Using Sending End Power (Nominal pi-method) GO

Which of the following transmission line can be considered as a medium transmission line?

The transmission lines having a length of more than 80 Km and less than 200 Km are considered medium transmission lines. Their operating voltage is more than short transmission lines but less than long transmission lines.

How to Calculate Sending End Voltage Using Transmission Efficiency (Nominal pi-method)?

Sending End Voltage Using Transmission Efficiency (Nominal pi-method) calculator uses Sending End Voltage=Receiving End Power/(3*cos(Sending end theta)*Sending end current )/Transmission efficiency to calculate the Sending End Voltage, The Sending End Voltage Using Transmission Efficiency (Nominal pi-method) formula is defined as the voltage at the sending end of the medium transmission line. Sending End Voltage and is denoted by Vs symbol.

How to calculate Sending End Voltage Using Transmission Efficiency (Nominal pi-method) using this online calculator? To use this online calculator for Sending End Voltage Using Transmission Efficiency (Nominal pi-method), enter Receiving End Power (Pr), Sending end theta (Ph-s), Sending end current (Is) and Transmission efficiency (η) and hit the calculate button. Here is how the Sending End Voltage Using Transmission Efficiency (Nominal pi-method) calculation can be explained with given input values -> 0.02585 = 25/(3*cos(0.4)*7)/50.

FAQ

What is Sending End Voltage Using Transmission Efficiency (Nominal pi-method)?

The Sending End Voltage Using Transmission Efficiency (Nominal pi-method) formula is defined as the voltage at the sending end of the medium transmission line and is represented as Vs=Pr/(3*cos(Ph-s)*Is)/η or Sending End Voltage=Receiving End Power/(3*cos(Sending end theta)*Sending end current )/Transmission efficiency. Receiving End Power is defined as the power at receiving end of the system, Sending end theta is defined as the sending end theta, Sending end current is defined as the current at sending end and Transmission efficiency is the total sideband power by the total transmitted power.

How to calculate Sending End Voltage Using Transmission Efficiency (Nominal pi-method)?

The Sending End Voltage Using Transmission Efficiency (Nominal pi-method) formula is defined as the voltage at the sending end of the medium transmission line is calculated using Sending End Voltage=Receiving End Power/(3*cos(Sending end theta)*Sending end current )/Transmission efficiency. To calculate Sending End Voltage Using Transmission Efficiency (Nominal pi-method), you need Receiving End Power (Pr), Sending end theta (Ph-s), Sending end current (Is) and Transmission efficiency (η). With our tool, you need to enter the respective value for Receiving End Power, Sending end theta, Sending end current and Transmission efficiency 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 Sending End Voltage?

In this formula, Sending End Voltage uses Receiving End Power, Sending end theta, Sending end current and Transmission efficiency. We can use 11 other way(s) to calculate the same, which is/are as follows -

Sending End Voltage=sqrt((((Receiving end voltage *cos(Receiving end theta))+(Receiving end current *Resistance))^2)+(((Receiving end voltage *sin(Receiving end theta))+(Receiving end current *capacitive reactance))^2))
Sending End Voltage=((3*Receiving end voltage *Receiving end current *cos(Receiving end theta))-Power Loss)/(3*Sending end current *cos(Sending end theta))
Sending End Voltage=(Voltage Regulation*Receiving end voltage )+Receiving end voltage
Sending End Voltage=Receiving end voltage *Receiving end current *cos(Receiving end theta)/(Transmission efficiency*Sending end current *cos(Sending end theta))
Sending End Voltage=Receiving end voltage -(Receiving end current *Impedance)
Sending End Voltage=Sending End Power/(3*Sending end current *cos(Sending end theta))
Sending End Voltage=acos(Receiving End Power/(Transmission efficiency*3*Sending end current *cos(Sending end theta)))
Sending End Voltage=Capacitive Voltage+((Sending end current *Impedance)/2)
Sending End Voltage=Receiving end voltage *(Voltage Regulation+1)
Sending End Voltage=Receiving end voltage *(Voltage Regulation+1)
Sending End Voltage=Receiving End Power/(Transmission efficiency*3*Sending end current *cos(Sending end theta))

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