If the 100 amps is powered by 10 volts, you have 1 kw, or 1000 watts. watts = volts X current The 'k' simply means kilo, or thousand.
The V stands for volts and A is amps. If for example you have a 12kVA device and are running off a voltage of 120 volts then Amps = 12000/120 = 100. You then use the calculated amps in a wire size table to get the correct size.
Ohms is a unit of resistance. Amps is a measure of current. They are related by Ohm's Law where Voltage = Current x Resistance. In your example Resistance = 100 x 10 to the 6th power So V in Micro volts over 100 would yield current expressed as micro amps. So if you had 100 volts you would have 1 micro amp.
A kw (kilowatt) is 1000 amps x volts. If you assume your one phase system has 120 volts, then divide by 120. Cheap, but close enough for most work, assume 100 volts, then each amp is a tenth of a kilowatt.
The 5 amp fuse has many wattages that it can protect. It depends on the voltage of the circuit that the fuse is protecting. Use the following formula, Watts = Volts x Amps. For example 120 volts x 5 amps = 600 watts, 240 volts x 5 amps = 1200 watts, 480 volts x 5 amps = 2400 watts and 600 volts x 5 amps = 3000 watts.
a 1.5 kVa source of electrical power has the capacity to supply 100 volts at 15 amps, 300 volts at 5 amps, or 1000 volts at 1.5 amps.
To supply 100 amps from 1.5 volts, you would need to use a very low resistance load. Using Ohm's Law (V = I*R), you can calculate that in order to achieve 100 amps with 1.5 volts, the load resistance would need to be approximately 0.015 ohms. Such low resistance loads can be challenging to find and may not be practical for most applications.
When you multiply amps x volts the product is watts. Using this formula W = Amps x Volts should give you your answer.
A three wire home distribution service rated at 100 amps has a wattage capacity of;From L1 to L2 at 240 volts x 100 amps = 24000 watts or 24 kilowatts. From L1 to neutral at 120 volts x 100 amps = 12000 watts or 12 kilowatts. From L2 to neutral at 120 volts x 100 amps = 12000 watts or 12 kilowatts.
Watts=Volts times Amps So without knowing the voltage the amps can be anything. At 100 Volts it'd be 14 Amps.
No.
A three wire home distribution service rated at 100 amps has a wattage capacity of;From L1 to L2 at 240 volts x 100 amps = 24000 watts or 24 kilowatts. From L1 to neutral at 120 volts x 100 amps = 12000 watts or 12 kilowatts. From L2 to neutral at 120 volts x 100 amps = 12000 watts or 12 kilowatts.
To calculate the watts, you can use the formula: Watts = Amps x Volts. In this case, 100 amps x 120 volts equals 12,000 watts.
To convert watts to amps, you can use the formula: Amps = Watts / Volts. Assuming a standard voltage of 120V, 1500 watts would be equivalent to 12.5 amps (1500 watts / 120 volts = 12.5 amps).
P = V x I x pf
The capacity of a 1.5kVA inverter is 1.5 kilovolt-amperes, which is equivalent to 1500 volt-amperes. When connected to a 24-volt battery, this setup can provide approximately 62.5 amps of power (1500 VA / 24 V = 62.5 A) for a certain duration depending on the battery capacity and load demand.
The power in watts can be calculated using the formula P = V x I, where P is power in watts, V is voltage in volts, and I is current in amperes. Since only voltage is given and not current, we cannot determine the power in watts.