Electrostatic and Capacitance An uncharged conductor is placed near a charged conductor, then the uncharged conductor gets charged by conduction the uncharged conductor is attracted first and then charged by induction the uncharged conductor gets charged by induction and then attracted towards the charging body it remains as such the uncharged conductor gets charged by conduction the uncharged conductor is attracted first and then charged by induction the uncharged conductor gets charged by induction and then attracted towards the charging body it remains as such ANSWER DOWNLOAD EXAMIANS APP
Electrostatic and Capacitance A 10 µF, 20 µF, 22 µF, and 100 µF capacitor are in parallel. The total capacitance is 152 µF 2.43 µF 100 µF 4.86 µF 152 µF 2.43 µF 100 µF 4.86 µF ANSWER DOWNLOAD EXAMIANS APP
Electrostatic and Capacitance A capacitor consists of two Ceramic plates and one mica disc Conductors separated by an insulator Insulators separated by a dielectric None of the listed here Ceramic plates and one mica disc Conductors separated by an insulator Insulators separated by a dielectric None of the listed here ANSWER DOWNLOAD EXAMIANS APP
Electrostatic and Capacitance The capacitance C is charged through a resistance R. The time constant of the charging circuit is given by C/R 1/RC RC R/C C/R 1/RC RC R/C ANSWER DOWNLOAD EXAMIANS APP
Electrostatic and Capacitance In the case of a lossy capacitor, its series equivalent resistance value will be very small large zero small very small large zero small ANSWER DOWNLOAD EXAMIANS APP
Electrostatic and Capacitance A capacitor and a resistor are connected in series to a sine wave generator. The frequency is set so that the capacitive reactance is equal to the resistance and, thus, an equal amount of voltage appears across each component. If the frequency is increased VC > VR VR = VC VR and VC = 0 VR > VC VC > VR VR = VC VR and VC = 0 VR > VC ANSWER DOWNLOAD EXAMIANS APP