Six capacitors are connected as shown in the figure. a) If C3 = 2.3 nF, what must C2 be to produce an equivalent capacitance of 5.0 nF for the combination of the two capacitors?: C2=______nF. b) For the same values of C2 and C3 as in part a), what is the value of C1 that will give an equivalent capacitance of 1.914 nF for the combination of the three capacitors?: C1=______nF. c) For the same values of C1, C2 and C3 as in part b), what is the equivalent capacitance of the entire set of capacitors if the values of the other capacitances are C4 = 1.3 nF, C5 = 1.7 nF and C6 = 4.7nF?: Ceq=______nF. d) If a battery with a potential difference of 11.7 V is connected to the capacitors shown in the figure, what is the total charge on all six capacitors?: Q=______nC. e) What is the potential drop across C5 in this case? V=______V.
Six capacitors are connected as shown in the figure.
a) If C3 = 2.3 nF, what must C2 be to produce an equivalent capacitance of 5.0 nF for the combination of the two capacitors?:
C2=______nF.
b) For the same values of C2 and C3 as in part a), what is the value of C1 that will give an equivalent capacitance of 1.914 nF for the combination of the three capacitors?:
C1=______nF.
c) For the same values of C1, C2 and C3 as in part b), what is the equivalent capacitance of the entire set of capacitors if the values of the other capacitances are C4 = 1.3 nF, C5 = 1.7 nF and C6 = 4.7nF?:
Ceq=______nF.
d) If a battery with a potential difference of 11.7 V is connected to the capacitors shown in the figure, what is the total charge on all six capacitors?:
Q=______nC.
e) What is the potential drop across C5 in this case?
V=______V.
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