voltage is pressure and kWh is energy... therefore pressure is energy...
There are zero amps in 32 kWh. Watts are the product of amps times volts. Without stating what the voltage is, this calculation can not be made. I = W/E is the formula to find amperage but there has to be a time constant if kWh is used. Usually the question is asked as to how many amps are in 32 kW.
raised voltage output
Ferranti Effect causes the receiving end voltage to be more than the sending end voltage. It occurs mainly in long transmission lines when they are lightly loaded. In this condition, the inductance of the lines becomes more resulting in increased receiving end voltage.
It depends on the voltage. Please restate the question and provide the voltage. In general, however, simply divide total power by KV to get KA. Remember the KWH is an integral, so you need to back calculate KW. If the month is a 30 day month, then KW is KWH / 30 / 1440. Then, if the load is star, simply divide by three; if the load is delta, divide by three and multiply by 1.732, the square root of 3. Example: 480 three phase running star. 8000 / 30 / 1440 is 185 amperes. 185 divided by 3 is 62 amperes per phase. For delta, that becomes 107 amperes.
Ohm's Law states that Voltage = Resistance (Ohms) * Current (Ampere). So when you increase voltage, you increase current.
To reduce kWh by capacitor is when a motor is put in. The terminal voltage is reducing and current is increasing it is connected parallel with the motor.
To calculate the kWh consumed by a 3-phase motor, you'll need to know both the power factor and operating hours. The formula is: kWh = (√3 x Volts x Amps x Power Factor x Hours) / 1,000. Without the power factor and hours of operation, a precise kWh calculation cannot be provided using just voltage and current.
In simple appliances that consist of basically just a resistor, the power is proportional to the voltage-squared, so each 1% increase in voltage gives a 2% increase in power. That applies to an electric convector. On the other hand if it has a thermostat, it will cut out just a little sooner if the voltage is higher, so in the long run the kWh will be about the same. Other appliances using a switch-mode power supply (e.g. computer) draw the same power when the voltage is changed (within reason). Most electric lights draw more power when the voltage is increased.
What is the effect of surge arrested on increase the voltage in medium voltage circuits?
Yes,We know that when the motor will be put on. At that time terminal voltage is reducing and also current is increasing. A capacitor is connected parallel with motor that time current will be reduce and also voltage will be increase. So reduce the actual KWH
To convert amps to kilowatt-hours (kWh) for a three-phase system, you need to know the voltage. The formula for three-phase power is: Power (kW) = sqrt(3) x Voltage (V) x Current (A) x Power Factor. Once you have the kW, you can convert to kWh by multiplying by the number of hours the equipment operates.
The voltage is irrelevant. You must know the wattage or kW used then multiply that # times what you pay per kWh.
There are zero amps in 32 kWh. Watts are the product of amps times volts. Without stating what the voltage is, this calculation can not be made. I = W/E is the formula to find amperage but there has to be a time constant if kWh is used. Usually the question is asked as to how many amps are in 32 kW.
The effect of diode voltage drop as the output voltage is that the input voltage will not be totally transferred to the output because power loss in the diode . The output voltage will then be given by: vout=(vin)-(the diode voltage drop).
raised voltage output
To calculate the energy consumption in kilowatt-hours (kWh), use the formula: Energy (kWh) = Power (kW) x Time (hr) Given power of 32 watts and voltage of 220 V, first convert power to kW by dividing by 1000 (32 W = 0.032 kW). If you run the light for 1 hour, the energy consumption will be 0.032 kW x 1 hr = 0.032 kWh.
The size of the fruit does not effect the voltage. If you're making a light, the size can effect how long it lasts. The greater the size, the longer it will last