Emitter Voltage with respect to Ground Solution

STEP 0: Pre-Calculation Summary
Formula Used
Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance)
Ve = -Vee+(Ie*Re)
This formula uses 4 Variables
Variables Used
Emitter Voltage - (Measured in Volt) - Emitter Voltage s the voltage between the emitter terminal and ground.
Negative Supply Voltage - (Measured in Volt) - Negative Supply Voltage is a voltage that is lower than the ground reference voltage in a circuit.
Emitter Current - (Measured in Ampere) - Emitter Current is the total current that flows into the emitter of a bipolar junction transistor .
Emitter Resistance - (Measured in Ohm) - Emitter Resistance of a bipolar junction transistor is a resistor that is connected between the emitter terminal of the transistor and the ground or power supply rail.
STEP 1: Convert Input(s) to Base Unit
Negative Supply Voltage: 12.25 Volt --> 12.25 Volt No Conversion Required
Emitter Current: 0.394643 Ampere --> 0.394643 Ampere No Conversion Required
Emitter Resistance: 2.8 Kilohm --> 2800 Ohm (Check conversion ​here)
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Ve = -Vee+(Ie*Re) --> -12.25+(0.394643*2800)
Evaluating ... ...
Ve = 1092.7504
STEP 3: Convert Result to Output's Unit
1092.7504 Volt --> No Conversion Required
FINAL ANSWER
1092.7504 1092.75 Volt <-- Emitter Voltage
(Calculation completed in 00.004 seconds)

Credits

Creator Image
Created by Suma Madhuri
VIT University (VIT), Chennai
Suma Madhuri has created this Calculator and 50+ more calculators!
Verifier Image
Verified by Ritwik Tripathi
Vellore Institute of Technology (VIT Vellore), Vellore
Ritwik Tripathi has verified this Calculator and 100+ more calculators!

18 Biasing Calculators

Collector Current given Current Gain Mosfet
​ Go Collector Current = (Current Gain*(Negative Supply Voltage-Base Emitter Voltage))/(Base Resistance+(Current Gain+1)*Emitter Resistance)
Input Biasing Current of Mosfet
​ Go Input Biasing Current = (Negative Supply Voltage-Base Emitter Voltage)/(Base Resistance+(Current Gain+1)*Emitter Resistance)
Collector Emitter Voltage given Collector Resistance
​ Go Collector Emitter Voltage = Collector Supply Voltage-(Collector Current+Input Biasing Current)*Collector Load Resistor
Collector Current given Current Gain
​ Go Collector Current = Current Gain*(Collector Supply Voltage-Base Emitter Voltage)/Base Resistance
Collector Emitter Voltage
​ Go Collector Emitter Voltage = Collector Supply Voltage-Collector Load Resistor*Collector Current
DC Bias Current of MOSFET
​ Go DC Bias Current = 1/2*Transconductance Parameter*(Gate-Source Voltage-Threshold Voltage)^2
Collector Voltage with respect to Ground
​ Go Collector Voltage = Collector Supply Voltage-Collector Current*Collector Load Resistor
Emitter Voltage with respect to Ground
​ Go Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance)
Base Current of MOSFET
​ Go Input Biasing Current = (Bias Voltage-Base Emitter Voltage)/Base Resistance
DC Bias Output Voltage at Drain
​ Go Output Voltage = Supply Voltage-Load Resistance*DC Bias Current
Collector Current in Saturation
​ Go Collector Current Saturation = Collector Supply Voltage/Collector Load Resistor
DC Bias Current of MOSFET using Overdrive Voltage
​ Go DC Bias Current = 1/2*Transconductance Parameter*Effective Voltage^2
Input Bias Current
​ Go DC Bias Current = (Input Bias Current 1+Input Bias Current 2)/2
Bias Voltage of MOSFET
​ Go Total Instantaneous Bias Voltage = DC Bias Voltage+DC Voltage
Emitter Current of Mosfet
​ Go Emitter Current = Collector Current+Input Biasing Current
Collector Current of Mosfet
​ Go Collector Current = Current Gain*Input Biasing Current
Base Voltage with respect to Ground
​ Go Base Voltage = Emitter Voltage+Base Emitter Voltage
Bias Current in Differential Pair
​ Go DC Bias Current = Drain Current 1+Drain Current 2

Emitter Voltage with respect to Ground Formula

Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance)
Ve = -Vee+(Ie*Re)

What are some applications of emitter voltage?

Emitter voltage is used in a wide variety of electronic applications, including:

Amplifiers: Emitter voltage is used to bias the transistor in BJT amplifiers. This helps to stabilize the DC bias point of the transistor and to improve the linearity of the amplifier.
Differential amplifiers: Emitter voltage is used to provide a common mode reference for the two transistors in differential amplifiers. This allows the amplifier to amplify differential signals while rejecting common mode signals.

How to Calculate Emitter Voltage with respect to Ground?

Emitter Voltage with respect to Ground calculator uses Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance) to calculate the Emitter Voltage, The Emitter Voltage with respect to ground formula is defined as n important parameter in BJT circuit design because it affects the DC bias point of the transistor and the gain of the transistor amplifier. Emitter Voltage is denoted by Ve symbol.

How to calculate Emitter Voltage with respect to Ground using this online calculator? To use this online calculator for Emitter Voltage with respect to Ground, enter Negative Supply Voltage (Vee), Emitter Current (Ie) & Emitter Resistance (Re) and hit the calculate button. Here is how the Emitter Voltage with respect to Ground calculation can be explained with given input values -> 1104.75 = -12.25+(0.394643*2800).

FAQ

What is Emitter Voltage with respect to Ground?
The Emitter Voltage with respect to ground formula is defined as n important parameter in BJT circuit design because it affects the DC bias point of the transistor and the gain of the transistor amplifier and is represented as Ve = -Vee+(Ie*Re) or Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance). Negative Supply Voltage is a voltage that is lower than the ground reference voltage in a circuit, Emitter Current is the total current that flows into the emitter of a bipolar junction transistor & Emitter Resistance of a bipolar junction transistor is a resistor that is connected between the emitter terminal of the transistor and the ground or power supply rail.
How to calculate Emitter Voltage with respect to Ground?
The Emitter Voltage with respect to ground formula is defined as n important parameter in BJT circuit design because it affects the DC bias point of the transistor and the gain of the transistor amplifier is calculated using Emitter Voltage = -Negative Supply Voltage+(Emitter Current*Emitter Resistance). To calculate Emitter Voltage with respect to Ground, you need Negative Supply Voltage (Vee), Emitter Current (Ie) & Emitter Resistance (Re). With our tool, you need to enter the respective value for Negative Supply Voltage, Emitter Current & Emitter Resistance and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
Let Others Know
Facebook
Twitter
Reddit
LinkedIn
Email
WhatsApp
Copied!