2) A battery is connected to the network of three capacitors shown in the figure. If the battery voltage is ɛ = 2 V and the capacitors are C1 = 12 F, C2 = 4 F, C3 = 9 F, then C3 a) Find the equivalent capacitance of the capacitor network. b) Find the charge on each capacitor and potential difference across each capacitor. c) Find the energy stored in capacitor C1.

Consider the following figure. C₁₂ C₂ a C- C₂ C₂=C₂ (a) Find the equivalent capacitance between points a and b for the group of capacitors connected as shown in the figure if C₁ = 6.00 μF, C₂ = 15.00 μF, and C3 = 1.00 μF. UF (b) If the potential between points a and b is 60.0 V, what charge is stored on C3? μC

A.) Determine Ceq for the combination of capacitors shown below. B.) Determine Ceq for the combination of capacitors shown below. Ceq C3= 10 F Ceq = C₁ = 16 F HE C₂ = 12 F HE C₁ = 2 F C3=9 F HE HI C3 = 17 F HE C4 = 5 F HH C4 = 2 F C.) Determine Ceq for the combination of capacitors shown below. D.) Determine Ceq for the combination of capacitors shown below. Ceq = Ceg C₂ = 8 F 18! = C₂ = 10 F HH C3= 15 F THI C4 = 13 F HH C₁ = 11 F C₁ = 18 F HE C4 = 18 F HH C₂ = 6 F

Given a 10 pF air-filled capacitor, you are asked to convert it to a capacitor that can store up to 8.3 µJ with a maximum potential difference of 662 V. What must be the dielectric constant of the material that you should you use to fill the gap in the air capacitor if you do not allow for a margin of error? Number Units