(a) When a 12.00-V battery is connected to the plates of a capacitor, it stores a charge of 15.0 µμC. What is the value of the capacitance? UF (b) If the same capacitor is connected to a 21.00-V battery, what charge is stored? μC

Two parallel-plate capacitors C, and C, are connected in parallel to a 12.0 V battery. Both capacitors have the same plate area of 4,10 cm? and plate separation of 2.65 mm. However, the first capacitor C, is filled with air, while the second capacitor C, is filled with a dielectric that has a dielectric constant of 4.00. (a) What is the charge stored on each capacitor? Q1 = pC Q2 = pC (b) What is the total charge stored on the parallel combination? PC Additional Materials

(a) How much charge is on each plate of a 2.00-µF capacitor when it is connected to a 10.0-V battery? µC (b) If this same capacitor is connected to a 2.00-V battery, what charge is stored? µC

(a) When a battery is connected to the plates of a 5.00-µF capacitor, it stores a charge of 60.0 µC. What is the voltage of the battery? V (b) If the same capacitor is connected to another battery and 75.0 µC of charge is stored on the capacitor, what is the voltage of the battery? V Need Help? Read It

(a) A 2.00 uF capacitor and a 6.50 uF capacitor are connected in serles across a 3.00 V battery. How much charge (In uc) Is stored on each capacitor? 2.00 µF capacitor 6.50 pF capacitor (b) The same two capacitors are disconnected and discharged. They are then connected in parallel across the same battery. How much charge (in pC) is stored on each capacitor now? 2.00 UF capacitor 6.50 µF capacitor Need Help? Rend It

= 6.00 µF and C, = 10.0 µF, are connected in parallel, and the resulting combination is connected %3D Two capacitors, C1 to a 9.00-V battery. (a) Find the equivalent capacitance of the combination. HF (b) Find the potential difference across each capacitor. V1= %3D V2 = C V (c) Find the charge stored on each capacitor. HC %3D Q2 HC II

You charge a 2.00-μF capacitor to 40.0 V. 1)How much additional energy must you add to charge it to 110 V? (Express your answer to three significant figures.)

(a) A teaching assistant connects a 8.00 V battery to the plates of a capacitor. After waiting a while, the capacitor reaches a maximum amount of 33.0 µC of stored charge. What is the value of the capacitance (in µF)? μF (b) The capacitor is disconnected from the battery, discharged, and then connected to a 20.0 V battery. Again, a long enough time is waited for the capacitor to fully charge. How much charge (in µC) is stored now? (Assume the capacitor can handle this new voltage without failing.) με

(a) How much charge is on each plate of a 6.00-µF capacitor when it is connected to a 17.0-V battery? µC (b) If this same capacitor is connected to a 2.00-V battery, what charge is stored? µC

In the following figure, charge on 4 µF capacitor is. 2 µF 2 µF 4 µF 50 V 40 μC 200 µC (b) 100 рС (d) 250 µC (a) (c)