Three capacitors, of capacitances C, = 2.0 µF, C, = 5.0 µF, and C3 = 7.0 µF, are initially charged to 36 V by connecting each, for a few instants, to a 36-V battery. The battery is then removed and the charged capacitors are connected in a closed series circuit, with the positive and negative terminals joined a shown in Fig. 26.32. What is the final charge on each capaci- tor? What is the voltage across the points PP' in Fig. 26.32? C2 C3 C1 P FIGURE 26.32 Three capacitors connected after they have been charged.
Three capacitors, of capacitances C, = 2.0 µF, C, = 5.0 µF, and C3 = 7.0 µF, are initially charged to 36 V by connecting each, for a few instants, to a 36-V battery. The battery is then removed and the charged capacitors are connected in a closed series circuit, with the positive and negative terminals joined a shown in Fig. 26.32. What is the final charge on each capaci- tor? What is the voltage across the points PP' in Fig. 26.32? C2 C3 C1 P FIGURE 26.32 Three capacitors connected after they have been charged.
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Transcribed Image Text:Q1 = 3.0 × 10¯C, Q = 4.1 × 10¬* C,
4.8 × 10¬* C, AVpp = 68 V

Transcribed Image Text:Three capacitors, of capacitances C, = 2.0 µF, C, = 5.0 µF,
and C3 = 7.0 µF, are initially charged to 36 V by connecting
each, for a few instants, to a 36-V battery. The battery is then
removed and the charged capacitors are connected in a closed
series circuit, with the positive and negative terminals joined as
shown in Fig. 26.32. What is the final charge on each capaci-
tor? What is the voltage across the points PP' in Fig. 26.32?
P'
C2
C3
C1
P
FIGURE 26.32 Three capacitors
connected after they have been charged.
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