With this calculator you can convert in a single step from Volts to Watts automatically, easily, quickly and for free.

We also explained that the formula should be used to convert from volts to watts, how convert from volts to watts in 1 single step, some illustrated examples of volts to watts and a table with the main conversions from volts to watts.

Most common power factor values in different constructions, appliances and motors.

**Formula to convert, pass, calculate and transform from volts to watts, single-phase, two-phase and three-phase:**

**W DC = Watts DC (direct current).****W**_{1Ø}= Watts 1 phase.**W**_{2Ø}= Watts 2 phases.**W**_{3Ø}= Watts 3 phases.**V**_{L-N}= Volts line-neutral.**V**_{L-L}= Volts line-line.**I**_{AC1Ø}= Current /_{monophase}Amps.**I**_{AC2Ø}= Current /_{Biphasic}Amps.**I**_{AC3Ø}= Current /_{Three-}phase Amps.**FP = Power factor.**

**How to convert from volts to watts in 1 single step:**

**Step 1:**

You only have to multiply the variables shown in the formula, according to the type of DC or AC current and the number of phases. Byexample: A biphasic coffee machine has a voltage of 240V (AC, LN), a power factor of 0.81 and a current of 5.4Amp, how many watts does the coffee machine have? To know the answer you just have to take the formula to find biphasic watts by multiplying the variables in the following way: 2x240x5,4 × 0.81 = 2099.52Watts (Formula: V (LN) xIxF.Px2 = watts).

**Examples of conversions from volts to Watts:**

**Example 1:**

A single-phase vacuum has an AC voltage of 127 volts (LN), 4.3 Amps and a power factor of 0.92, how many watts does the vacuum have?

Rta: // The first thing to do is identify the formula to be used, because the equipment is single-phase and AC (alternating current), you should use the formula: V (LN) xIxF.P, replacing the variables would be: 127Vx4.3 × 0.92 = 502.41Watts.

**Example 2:**

A biphasic hair dryer has an AC voltage of 220V (LL), an amperage of 8Amperes and a power factor of 0.96, which will be the power in watts of the hair dryer ?.

Rta: // Take the formula for two-phase equipment (Formula: 2xV (LN) xIxF.P = watts), because we have the LL voltage, we must pass it to LN, in the following way: multiply 220V (LL) / √3 = 127V (LN), this is the way in which the voltage from Linea-Linea to Linea-Neutro is converted, then we simply multiply the variables that appear in the formula: 2x127x8x0,96 = 1950Watts.

**Example 3:**

The lighting of an industry has a three-phase voltage of 480Volts (LL), a power factor of 0.87 and an amperage of 200Amp, how many Watts does the lighting have ?.

Rta: // As it is a three-phase illuminaicon, the formula must be taken: (√3xV (LL) xIxF.P = watts), then replacing the variables I get: √3x480x200x0,87 = 144,660Watts.

**Volts to Watts, table for conversion, equivalence, transformation (Amperes = 10Amp, Fp = 0.8, AC, 3F):**

How many Volts are: | Equivalence in Watts |

120 Volts | Equivalent to 1662.77 Watts |

127 Volts | 1759.76 Watts |

220 Volts | 3048.41 Watts |

240 Volts | 3325.54 Watts |

277 Volts | 3838.22 Watts |

440 Volts | 6096.82 Watts |

600 Volts | 8313.84 Watts |

1000 Volts | 13856.41 Watts |

1500 Volts | 20784.61 Watts |

4160 Volts | 57642.65 Watts |

5000 Volts | 69282.03 Watts |

7620 Volts | 105585.82 Watts |

8000 Volts | 110851.25 Watts |

11400 Volts | 157963.03 Watts |

13200 Volts | 182904.57 Watts |

15000 Volts | 207846.10 Watts |

22000 Volts | 304840.94 Watts |

25000 Volts | 346410.16 Watts |

30000 Volts | 415692.19 Watts |

34500 Volts | 478046.02 Watts |

35000 Volts | 484974.23 Watts |

40000 Volts | 554256.26 Watts |

46000 Volts | 637394.70 Watts |

57500 Volts | 796743.37 Watts |

66000 Volts | 914522.83 Watts |

69000 Volts | 956092.05 Watts |

115000 Volts | 1593486.74 Watts |

138000 Volts | 1912184.09 Watts |

230000 Volts | 3186973.49 Watts |

**Note:** The previous conversions take into account a power factor of 0.8, an amperage of 10 Amp and a three-phase AC power. For different variables you should use the calculator that appears at the beginning.

**Most common and typical power factors for buildings, appliances and motors.**

**Typical power factor uncorrected in different constructions:**

buildings | Power factor |

Auto parts | 0.75-0.80 |

Brewery | 0.75-0.80 |

Cement | 0.80-0.85 |

Chemicals | 0.65-0.75 |

Coal mine | 0.65-0.80 |

Clothes | 0.35-0.60 |

Electroplating | 0.65-0.70 |

Foundry | 0.75-0.80 |

Wrought | 0.70-0.80 |

Hospital | 0.75-0.80 |

Machine manufacturing | 0.60-0.65 |

Metallurgy | 0.65-0.70 |

Office building | 0.80-0.90 |

Oil pumping | 0.40-0.60 |

Paint Manufacturing | 0.65-0.70 |

Plastics | 0.75-0.80 |

0.60-0.70 | |

Work with Steel | 0.65-0.80 |

**Typical power factor without correction in household appliances:**

Electronic equipment | Power factor |

Magnavox Projection TV – standby | 0.37 |

Samsung 70 “3D Bluray | 0.48 |

Digital photo frame | 0,52 |

ViewSonic Monitor | 0.5 |

Dell Monitor | 0.55 |

Projector Magnavox Projection TV | 0.58 |

Digital photo frame | 0.6 |

Digital photo frame | 0.62 |

Digital photo frame | 0.65 |

Projector Philips 52 “Projection TV | 0.65 |

Wii video game console | 0.7 |

Digital photo frame | 0.73 |

Xbox Kinect video game console | 0.75 |

Xbox 360 video game console | 0.78 |

Microwave | 0.9 |

Television Sharp Aquos 3D TV | 0.95 |

PS3 Move video game console | 0.98 |

Playstation 3 video game console | 0.99 |

Element TV 41 “Plasma TV | 0.99 |

Current large, flat-screen television | 0.96 |

Window air conditioner | 0.9 |

Legacy color television CRT-Based color television | 0.7 |

Computer monitor Legacy flat panel computer monitor | 0.64 |

White LED luminaire | 0.91 |

Portable adapter | 0.55 |

Laser printer | 0.5 |

Incandescent lamp | 1 |

Fluorescent lamp (uncompensated) | 0.5 |

Fluorescent lamp (compensated) | 0.93 |

Discharge lamp | 0.4-0.6 |

**Typical power factors uncorrected in motors:**

Horse power | Speed | Power factor | ||

() | (rpm) | 1/2 load | 3/4 load | Full load |

0 – 5 | 1800 | 0.72 | 0.82 | 0.84 |

5 – 20 | 1800 | 0.74 | 0.84 | 0.86 |

20 – 100 | 1800 | 0.79 | 0.86 | 0.89 |

100 – 300 | 1800 | 0.81 | 0.88 | 0.91 |

*Reference // Power Factor in Electrical Energy Management-A. Bhatia, BE-2012 *

*Power Factor Requirements for Electronic Loads in California- Brian Fortenbery, 2014 *

*http://www.engineeringtoolbox.com*

## How to use the calculator from Volts to Watts:

Initially you must choose the type of current you want AC or DC and the number of phases in case of choosing AC, then you must enter the data shown on the left side of the tool, it is important to review what is requested in the table due to the fact that according to what is required, line-line or neutral-line voltage must be input, then you must enter the power factor and finally the amperage.

Qualify Calculator from Volts to Watts: