Yes, but typically for a short period of time depending on the capacitance and the load. For example in a motor application a starting capacitor will charge and then discharge to provide the extra boost to get a motor started.
Yes, but only for limited periods of time or for very low power loads. For example modern CMOS static RAM chips need only a few microamperes and often much less to hold data. This can frequently be supplied for quite some time by a simple supercapacitor. I once worked on an avionics unit that had to handle main powerbus dropouts of up to 15 minutes duration inflight, then resume operation when the powerbus came back up with no dataloss. This was handled in the unit's powersupply assembly by a secondary independent switching powersupply for backup RAM power during a main powerbus dropout. While the powerbus was up, it ran the main switching powersupply which supplied various voltages the unit needed including +5V to the RAM, also a large capacitor was kept fully charged to about 170V. When the powersupply assembly detected a main powerbus dropout and before the capacitors for the +5V to the RAM discharged, the secondary independent switching powersupply was turned on and it used the large capacitor as its energy source to supply +3.3V to the RAM to hold data. It could continue supplying this +3.3V backup RAM power until the large capacitor had discharged to roughly 10V, which took a little longer than 17 minutes.
The capacitor is used to create a second phase from the single phase power source and it is the interaction between these two phases that causes the motor to turn.
A Polarized capacitor means that the capacitor is polarity sensitive. if you were to connect the capacitor incorrectly the capacitor would blow up. A capacitor that is marked as being polarity sensitive will have the negative lead labeled usually with a white strip. These capacitors can only be used in conjunction with a dc source. Always consult a professional when installing electrical equipment.
Sometimes. The exception is when the capacitor is used as a "timing" device. But 7.5 mfd and 5 mfd are so large that one would guess that they are not being used as timing devices.
The effective resistance of the capacitor reduces the ripple current through the capacitor making it less effective in its function of smoothing the voltage. But if the capacitor filter is fed by a transformer and diodes, the resistance of the transformer exceeds that of the capacitor.
When a capacitor discharges the discharge current flows in the opposite direction to the current used to charge it.
We used capacitor in UM66 because capacitors are used to store the energy, and hence when we press the switch it will charged the capacitor and energy stored in it, and after releasing the switch it releases the energy. So, we can use the capacitor to store the energy.
if exact replacement capacitors are not available,you should substitute it with a capacitor that has
A: Mathematically speaking the capacitor will never charge to the source because it takes one time constant to reach 63% and so on but for practical uses it is assume to be fully charged in 5 time constants R X C = 1 TIME CONSTANT
You use a capacitor to store electrostatic energy. You use an inductor to store electromagnetic energy. You use a resistor to dissipate electrical energy.
A Battery or a capacitor.
Sure, but it won't mean anything unless the Thevenin source is an AC source. In that case, simply determine the frequency of the source, and draw the appropriate reactance in the circuit where the capacitor belongs. If the Thevenin source is DC, then the frequency is zero, the reactance of the capacitor is infinite, and you can show it as an open circuit, i.e. not there.
Light energy is used . Sun is the source
The source of energy that is used in chemosynthesis is the chemicals.
The source of energy used by mitochondria is ATP.
Very roughly speaking, it used for storing energy in its electric field.
The source of energy in stoves is HEAT ENERGY
fule fossile is the most used energy source