n the figure the battery has potential difference V = 14.0 V, C2 = 3.70 μF, C4 = 4.10 μF, and all the capacitors are initially uncharged. When switch S is closed, a total charge of 14.0 μC passes through point a and a total charge of 7.00 μC passes through point b. What are (a) C1 and (b) C3?

In the figure the capacitances are C1 = 1.20 µF and C2 = 3.20 µF, and both capacitors are charged to a potential difference of V = 140.0 V but with opposite polarity as shown. Switches S, and S2 are now closed. What now is the charge on capacitor 1 in µC? 5. (a) 63.5 (b) 73.8 (c) 76.4 (d) 203 (e) None of the above

In the figure the battery has potential difference V = 10.0 V, C2 = 3.30 μF, C4 = 4.60 μF, and all the capacitors are initially uncharged. When switch S is closed, a total charge of 10.0 μC passes through point a and a total charge of 8.00 μC passes through point b. What are (a) C₁ and (b) C3? (a) Number S C₁ C₂ a Cs. b ! Unit (b) Number ! Unit CA EL F பட F

The capacitors in the figure are initially uncharged. The capacitances are C1 = 3.1 μF, C2 = 7.9 μF, and C3 = 12 μF, and the battery's potential difference is V = 14 V. When switch S is closed, how many electrons travel through (a) point a, (b) point b, (c) point c, and (d) point d? (e) In the figure, do the electrons travel up or down through point b? (f) In the figure, do the electrons travel up or down through point c?

are Ci= 3.0µF, C2= 2.0µF, C= 1.8uF. CA= 3.0uF. The battery voltage is 12.0V. (a) Calculate the equivalent capacitance of the configuration. (b) How much energy is stored in this capacitor configuration? (c) How much energy is stored in capacitor C1? C4 C2

The network of capacitors shown below are all uncharged when a 448V potential is applied between points A and B with the switch S open. How much energy is stored in the network of capacitors? 2.0 μF 4.0 μF D A S B 4.0 μF 2.0 μF E

An engineer has three different capacitors of unknown capacitance. She labels them C₁, C2, and C3. First, she connects C₁ to a battery, and the charge on C₁ is 91 = 32.8 µC. Then, she disconnects and discharges C₁, and connects it in series with C₂. When she connects this series combination of C₂ and C₁ across the battery, the charge on C₁ is 92 22.1 μC. The engineer disconnects the circuit and discharges both capacitors. Next, she connects C3, C₁, and the battery in series, which results in a charge on C₁ of 93 = 25.7 μC. If, after being disconnected and discharged, she connects C₁, C₂, and C3 in series with the battery, what is the charge on C₁ (in µC)? μC

The figure below shows capacitors 1 (C1=8.00muF), capacitor2 (C2=6.00 muF), and capacitor 3 (C3=8.00 muF) connected to 12V battery. When switch S is closed so as to connect  uncharged capacitor 4 (C4=6.00muF) (a) How much charge passes through point P from the battery? (b) How much charge shows up on capacitor 4? (c) How much energy is stored in C1?

In the figure a 27 V battery is connected across capacitors of capacitances C₁ = C6 = 4.5 µF and C3 = C₁ = 2.5C₂ = 2.5C4 = 6.0 μF. What are (d) q1 of capacitor 1, (e) V₂ and (f) q2 of capacitor 2, and (g) v3 and (h) 93 of capacitor 3? C4 C3 # C₁ C₁

In the figure a potential difference of V = 104 V is applied across a capacitor arrangement with capacitances C₁ = 10.2 μF, C₂ = 6.76 μF, and C3 = 3.96 µF. If capacitor 3 undergoes electrical breakdown so that it becomes equivalent to conducting wire, what is the increase in (a) the charge on capacitor 1 and (b) the potential difference across capacitor 1? (a) Number i 856.8E-6 Units C (b) Number i 84 Units V C2