Output Voltage For Buck Regulator (DCM) Calculator

Category	Engineering ↺

✖Input voltage is the voltage supplied to the deviceⓘ Input voltage [V_i]			+10% -10%
✖A duty cycle or power cycle is the fraction of one period in which a signal or system is activeⓘ duty Cycle [D]			+10% -10%
✖The time commutation is the process of transferring current from one connection to another within an electric circuitⓘ time commutation [T.C]			+10% -10%
✖Inductance is the tendency of an electric conductor to oppose a change in the electric current flowing through it.ⓘ Inductance [L]			+10% -10%
✖output current is the current the amplifier draws from the signal sourceⓘ output current [i]			+10% -10%

✖Output voltage signifies the voltage of the signal after it has been amplified. ⓘ Output Voltage For Buck Regulator (DCM) [V_o]

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Shobhit Dimri

Bipin Tripathi Kumaon Institute of Technology (BTKIT), Dwarahat

Shobhit Dimri has created this Calculator and 100+ more calculators!

Urvi Rathod

Vishwakarma Government Engineering College (VGEC), Ahmedabad

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

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

Decay of Current in LR Circuit

Decay of current in L-R circuit=Current when T=0*e^(-Time Period Of Progressive Wave/(Inductance/Resistance)) GO

Growth of Current in LR Circuit

Growth of current in LR circuit=(e/Resistance)*(1-e^(-Time/(Inductance/Resistance))) GO

Capacitance For The Parallel RLC Circuit When Q-Factor Is Given

Capacitance=(Inductance*Quantity Factor*Quantity Factor)/(Resistance*Resistance) GO

Capacitance For The Series RLC Circuit When Q-Factor Is Given

Capacitance=Inductance/(Quantity Factor*Quantity Factor*Resistance*Resistance) GO

Self Resonance Frequency

Self resonance frequency=1/(2*3.14*(Inductance*Transition Capacitance)^1/2) GO

Resistance For The Series RLC Circuit When Q-Factor Is Given

Resistance=sqrt(Inductance)/(Quantity Factor*sqrt(Capacitance)) GO

Q-factor For The Series RLC Circuit

Quantity Factor=sqrt(Inductance)/(Resistance*sqrt(Capacitance)) GO

Resistance For The parallel RLC Circuit When Q-Factor Is Given

Resistance=Quantity Factor/(sqrt(Capacitance/Inductance)) GO

Q-factor For The Parallel RLC Circuit

Quantity Factor=Resistance*(sqrt(Capacitance/Inductance)) GO

Time Constant of LR Circuit

Time constant of L-R circuit=Inductance/Resistance GO

Time Constant For The RC Circuit When The Inductance Is Given

Time constant=Inductance/Resistance GO

< 11 Other formulas that calculate the same Output

Output voltage when MOSFET acts as an amplifier

Output voltage =Supply Voltage-1/2*MOSFET transconductance parameter*Load Resistance*(Voltage across the oxide-Threshold voltage)^2 GO

Voltage across output in an amplifier

Output voltage =Open circuit voltage gain*Input voltage*(Load resistance/(Load resistance+Output resistance)) GO

Output Voltage For Boost Regulator (DCM)

Output voltage =Input voltage+((Input voltage^2*duty Cycle^2*time commutation)/2*Inductance*output current ) GO

Output Voltage For Buck-Boost Regulator (DCM)

Output voltage =Input voltage^2*duty Cycle^2*time commutation/(2*Inductance*output current ) GO

Output Voltage (LSR)

Output voltage =Input voltage-(Load current+Shunt Field Current)*Shunt field resistance GO

Output Voltage of BJT Amplifier

Output voltage =Supply Voltage-Drain current of BJT *Load Resistance GO

Output Voltage For Buck-Boost Regulator (CCM)

Output voltage =-Input voltage*duty Cycle/(1-duty Cycle) GO

Output Voltage For Cuk Regulator

Output voltage =-Input voltage*duty Cycle/(1-duty Cycle) GO

Output Voltage For Boost Regulator (CCM)

Output voltage =Input voltage/(1-duty Cycle) GO

Output Voltage For Buck Regulator (CCM)

Output voltage =duty Cycle*Input voltage GO

Output voltage Vo of a difference amplifier

Output voltage =(R2/R1)*(vl2 -vl1) GO

Output Voltage For Buck Regulator (DCM) Formula

Output voltage =Input voltage*(1+(Input voltage*duty Cycle^2*time commutation/2*Inductance*output current ))
Vo=Vi*(1+(Vi*D^2*T.C/2*L*i))

More formulas

Output Voltage For Buck Regulator (CCM) GO

Input Voltage For Buck Regulator (CCM) GO

Duty Cycle For Buck Regulator (CCM) GO

Output Current For Buck Regulator (DCM) GO

Inductor Value For Buck Regulator (DCM) GO

Commutation Period For Buck Regulator (DCM) GO

What is output voltage ?

Output Voltage For Boost Regulator (CCM) is the receiver part that produces voltage. when acquired energy loss along with the load, the calculated load across the load known as output voltage.

How to Calculate Output Voltage For Buck Regulator (DCM)?

Output Voltage For Buck Regulator (DCM) calculator uses Output voltage =Input voltage*(1+(Input voltage*duty Cycle^2*time commutation/2*Inductance*output current )) to calculate the Output voltage , The Output Voltage For Buck Regulator (DCM) is the receiver part that produces voltage. when acquired energy loss along with the load, the calculated load across the load known as output voltage. Output voltage and is denoted by V_o symbol.

How to calculate Output Voltage For Buck Regulator (DCM) using this online calculator? To use this online calculator for Output Voltage For Buck Regulator (DCM), enter Input voltage (V_i), duty Cycle (D), time commutation (T.C), Inductance (L) and output current (i) and hit the calculate button. Here is how the Output Voltage For Buck Regulator (DCM) calculation can be explained with given input values -> 1.25 = 1*(1+(1*0.1^2*1/2*50*1)).

FAQ

What is Output Voltage For Buck Regulator (DCM)?

The Output Voltage For Buck Regulator (DCM) is the receiver part that produces voltage. when acquired energy loss along with the load, the calculated load across the load known as output voltage and is represented as V_o=V_i*(1+(V_i*D^2*T.C/2*L*i)) or Output voltage =Input voltage*(1+(Input voltage*duty Cycle^2*time commutation/2*Inductance*output current )). Input voltage is the voltage supplied to the device, A duty cycle or power cycle is the fraction of one period in which a signal or system is active, The time commutation is the process of transferring current from one connection to another within an electric circuit, Inductance is the tendency of an electric conductor to oppose a change in the electric current flowing through it and output current is the current the amplifier draws from the signal source.

How to calculate Output Voltage For Buck Regulator (DCM)?

The Output Voltage For Buck Regulator (DCM) is the receiver part that produces voltage. when acquired energy loss along with the load, the calculated load across the load known as output voltage is calculated using Output voltage =Input voltage*(1+(Input voltage*duty Cycle^2*time commutation/2*Inductance*output current )). To calculate Output Voltage For Buck Regulator (DCM), you need Input voltage (V_i), duty Cycle (D), time commutation (T.C), Inductance (L) and output current (i). With our tool, you need to enter the respective value for Input voltage, duty Cycle, time commutation, Inductance and output current 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 Output voltage ?

In this formula, Output voltage uses Input voltage, duty Cycle, time commutation, Inductance and output current . We can use 11 other way(s) to calculate the same, which is/are as follows -

Output voltage =Open circuit voltage gain*Input voltage*(Load resistance/(Load resistance+Output resistance))
Output voltage =(R2/R1)*(vl2 -vl1)
Output voltage =Input voltage-(Load current+Shunt Field Current)*Shunt field resistance
Output voltage =duty Cycle*Input voltage
Output voltage =Input voltage/(1-duty Cycle)
Output voltage =Input voltage+((Input voltage^2*duty Cycle^2*time commutation)/2*Inductance*output current )
Output voltage =-Input voltage*duty Cycle/(1-duty Cycle)
Output voltage =Input voltage^2*duty Cycle^2*time commutation/(2*Inductance*output current )
Output voltage =-Input voltage*duty Cycle/(1-duty Cycle)
Output voltage =Supply Voltage-Drain current of BJT *Load Resistance
Output voltage =Supply Voltage-1/2*MOSFET transconductance parameter*Load Resistance*(Voltage across the oxide-Threshold voltage)^2

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