So long as the battery is connected, the capacitor will just remain charged. Once the battery is removed, if there's some closed loop path between the plates of the capacitor, then the excess charge on one side of the capacitor will use the closed loop to balance out the charge.
V = IR, The larger the resistance the smaller the current. V = I R E = (Q / A) / ε 0 C = Q / V = ε 0 A / s V = (Q / A) s / ε 0 The following graphs depict how current and charge within charging and discharging capacitors change over time. When the capacitor begins to charge or discharge, current runs through the circuit.
Generally speaking, a charge of greater than 10 volts is considered dangerous enough to shock you. If the capacitor reads as having fewer than 10 volts, you don’t need to discharge it. If the capacitor reads anywhere between 10 and 99 volts, discharge it with a screwdriver.
Capacitance and energy stored in a capacitor can be calculated or determined from a graph of charge against potential. Charge and discharge voltage and current graphs for capacitors. A closed loop through which current moves - from a power source, through a series of components, and back into the power source.
Discharging a capacitor means releasing the stored electrical charge. Let’s look at an example of how a capacitor discharges. We connect a charged capacitor with a capacitance of C farads in series with a resistor of resistance R ohms. We then short-circuit this series combination by closing the switch.
Circuit Setup: A charged capacitor is connected in series with a resistor, and the circuit is short-circuited by a switch to start discharging. Initial Current: At the moment the switch is closed, the initial current is given by the capacitor voltage divided by the resistance.