Voltage Division in Two Inductors Solution

STEP 0: Pre-Calculation Summary
Formula Used
Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2))
VL1 = Vs*((L1)/(L1+L2))
This formula uses 4 Variables
Variables Used
Inductor 1 Voltage - (Measured in Volt) - Inductor 1 Voltage is defined as the voltage across the inductor 1 of a circuit with a voltage source and two inductors connected in series.
Source Voltage - (Measured in Volt) - Source Voltage, is the difference in electric potential between two points, which is defined as the work needed per unit of charge to move a test charge between the two points.
Circuit Inductance 1 - (Measured in Henry) - Circuit inductance 1 is the inductance 1 in the circuit with a voltage source connected in series with two inductance.
Circuit Inductance 2 - (Measured in Henry) - Circuit inductance 2 is the inductance 1 in the circuit with a voltage source connected in series with two inductance.
STEP 1: Convert Input(s) to Base Unit
Source Voltage: 120 Volt --> 120 Volt No Conversion Required
Circuit Inductance 1: 0.3 Henry --> 0.3 Henry No Conversion Required
Circuit Inductance 2: 0.15 Henry --> 0.15 Henry No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
VL1 = Vs*((L1)/(L1+L2)) --> 120*((0.3)/(0.3+0.15))
Evaluating ... ...
VL1 = 80
STEP 3: Convert Result to Output's Unit
80 Volt --> No Conversion Required
FINAL ANSWER
80 Volt <-- Inductor 1 Voltage
(Calculation completed in 00.004 seconds)

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Chandigarh University (CU), Punjab
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17 DC Circuits Calculators

Delta to Star Transformation
Go Star Impedance A = (Delta Impedance 1*Delta Impedance 3)/(Delta Impedance 1+Delta Impedance 2+Delta Impedance 3)
Star to Delta Transformation
Go Delta Impedance 1 = Star Impedance A+Star Impedance B+((Star Impedance A*Star Impedance B)/Star Impedance C)
Voltage Division for Two Capacitors
Go Capacitor 1 Voltage = Source Voltage*((Circuit Capacitance 2)/(Circuit Capacitance 1+Circuit Capacitance 2))
Voltage Division in Two Inductors
Go Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2))
Current Division in Two Inductors
Go Inductor 1 Current = Source Current*((Circuit Inductance 2)/(Circuit Inductance 1+Circuit Inductance 2))
Maximum Power Transfer
Go Maximum Power = (Thevenin Voltage^2*Load Resistance)/(Load Resistance+Thevenin Resistance)^2
Voltage Divider for Two Resistors
Go Resistor 1 Voltage = Source Voltage*((Resistance 1)/(Resistance 1+Resistance 2))
Current Divider for Two Resistors
Go Resistor 1 Current = Source Current*((Resistance 2)/(Resistance 1+Resistance 2))
Current Division in Two Capacitors
Go Capacitor 1 Current = Source Current*((Circuit Capacitance 1)/(Circuit Capacitance 2))
Conductance given Resistivity
Go Conductance = Area of Conductor/(Length of Conductor*Resistivity)
Conductance given Current
Go Conductance = Current/Voltage
Resistance in DC Circuit
Go Resistance = Voltage/Current
Current in DC Circuits
Go Current = Voltage/Resistance
Voltage in DC Circuit
Go Voltage = Current*Resistance
Power in DC Circuit
Go Power = Voltage*Current
Energy in DC Circuit
Go Energy = Power*Time
Conductance in DC Circuit
Go Conductance = 1/Resistance

Voltage Division in Two Inductors Formula

Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2))
VL1 = Vs*((L1)/(L1+L2))

Explain inductors in series?

Inductors in series are simply “added together” because the number of coil turns is effectively increased, with the total circuit inductance LT being equal to the sum of all the individual inductances added together. The current, ( I ) that flows through the first inductor, L1 has no other way to go but pass through the second inductor and the third and so on. Then, series inductors have a Common Current flowing through them. Then the total inductance of the series chain can be found by simply adding together the individual inductances of the inductors in series just like adding together resistors in series.

How to Calculate Voltage Division in Two Inductors?

Voltage Division in Two Inductors calculator uses Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2)) to calculate the Inductor 1 Voltage, The Voltage Division in Two Inductors formula is defined as the division of voltage in a circuit consisting a voltage source and two inductors connected in series. Inductor 1 Voltage is denoted by VL1 symbol.

How to calculate Voltage Division in Two Inductors using this online calculator? To use this online calculator for Voltage Division in Two Inductors, enter Source Voltage (Vs), Circuit Inductance 1 (L1) & Circuit Inductance 2 (L2) and hit the calculate button. Here is how the Voltage Division in Two Inductors calculation can be explained with given input values -> 80 = 120*((0.3)/(0.3+0.15)).

FAQ

What is Voltage Division in Two Inductors?
The Voltage Division in Two Inductors formula is defined as the division of voltage in a circuit consisting a voltage source and two inductors connected in series and is represented as VL1 = Vs*((L1)/(L1+L2)) or Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2)). Source Voltage, is the difference in electric potential between two points, which is defined as the work needed per unit of charge to move a test charge between the two points, Circuit inductance 1 is the inductance 1 in the circuit with a voltage source connected in series with two inductance & Circuit inductance 2 is the inductance 1 in the circuit with a voltage source connected in series with two inductance.
How to calculate Voltage Division in Two Inductors?
The Voltage Division in Two Inductors formula is defined as the division of voltage in a circuit consisting a voltage source and two inductors connected in series is calculated using Inductor 1 Voltage = Source Voltage*((Circuit Inductance 1)/(Circuit Inductance 1+Circuit Inductance 2)). To calculate Voltage Division in Two Inductors, you need Source Voltage (Vs), Circuit Inductance 1 (L1) & Circuit Inductance 2 (L2). With our tool, you need to enter the respective value for Source Voltage, Circuit Inductance 1 & Circuit Inductance 2 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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