(sub) - (sub) equations:
- S = Apparent Power in VA
- V = Voltage in Volts V
- I = Current in Amps A
- R = Resistor in ohms
- P = Real Power in Kilowatts kw
- P = Real Power in Watts
- E = Energy In Kilowatt-hours Kwh
- E = Energy In Electron-volts eV
- T = Time in Seconds sec
- Q = Elementary Charge e
- Q = Energy In Joules J
- Q = Battery Capacity in Milliamp-hours mAh
- Q = Coulombs Charge C
- Cosθ = Power factor in AC circuits
- VL-L = Line to Line Voltage in 3-Phase Circuits
- VL-N = Line to Neutral Voltage in 3-Phase Circuits
Where:
Mathematical Definition:
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Mathematical Definition 2:
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Mathematical Definition 3:
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Mathematical Definition 4:
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Mathematical Definition:
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Mathematical Definition 2:
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Mathematical Definition 3:
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Mathematical Definition 4:
For Example,
Mathematical Definition:
For Example,
Mathematical Definition 2:
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Mathematical Definition 3:
For Example,
Mathematical Definition 4:
For Example,
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using the sub calculator.
To use the above "sub Conversion Calculator" follow the below steps:
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sub conversion application
- S = Apparent Power in VA
- V = Voltage in Volts V
- I = Current in Amps A
- R = Resistor in ohms
- P = Real Power in Kilowatts kw
- P = Real Power in Watts
- E = Energy In Kilowatt-hours Kwh
- E = Energy In Electron-volts eV
- T = Time in Seconds sec
- Q = Elementary Charge e
- Q = Energy In Joules J
- Q = Battery Capacity in Milliamp-hours mAh
- Q = Coulombs Charge C
- Cosθ = Power factor in AC circuits
- VL-L = Line to Line Voltage in 3-Phase Circuits
- VL-N = Line to Neutral Voltage in 3-Phase Circuits
Where:
Frequently Asked Questions - Lm337 Resistor Voltage Conversion FAQs:
What is the output voltage of LM337?
The LM337 can be used to produce a negative adjustable voltage. The range for setting output voltage is from −1.25 to −37 volts. How much voltage is supplied depends on how the resistors are set between the output and the adjust pin. This is used in physics when something is needed to supply negative charges.
How is LM337 output voltage calculated?
You can find Vout with the equation: Vout = Vref × (1 + R2/R1) + Iadj × R2. Vref is generally 1.25V. Because R1 and R2 are both external resistors and Iadj is small, most of the time Vout is about 1.25V × (1 + R2/R1).
What is the standard equation for LM337?
According to the LM337, the output voltage is: Vout = Vref × (1 + R2/R1) + Iadj × R2. The voltage across the first diode is 1.25V. It describes the role that the resistors have in deciding the output voltage.
How do you calculate voltage across a resistor?
The voltage across a resistor can be found using Ohm’s Law: V = I × R (where V stands for voltage, I for current, and R for the resistance in ohms). You can easily get the voltage if you know both current and resistance.
What are LM337 applications?
LM337 is used to make a steady negative supply voltage in audio, analog, or op-amp circuits. It makes it possible for a dual power supply to work effectively and gives precise control over voltage.