11) For the circuit shown in the figure, the switch S is initially open and the capacitor is uncharged. The switch is then closed at time t = 0. How many seconds after closing the switch will the energy stored in the capacitor be equal to 50.2 mJ? 40 V (a) 81 s (b) 65 s # (c) 97 s (d) 110 s (e) 130 s ww 0.50 ΜΩ 90 μF
11) For the circuit shown in the figure, the switch S is initially open and the capacitor is uncharged. The switch is then closed at time t = 0. How many seconds after closing the switch will the energy stored in the capacitor be equal to 50.2 mJ? 40 V (a) 81 s (b) 65 s # (c) 97 s (d) 110 s (e) 130 s ww 0.50 ΜΩ 90 μF
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![11) For the circuit shown in the figure, the switch S is initially open and the capacitor
is uncharged. The switch is then closed at time t = 0. How many seconds after closing
the switch will the energy stored in the capacitor be equal to 50.2 mJ?
40 V
(a) 81 s
(b) 65 s
(c) 978
(d) 110 s
(e) 130 s
www
0.50 ΜΩ
90 μF](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F79b64a3f-9489-43a6-bd02-d2e47f0f97e8%2F3b8d307c-9be2-458c-b00a-b8d922385b34%2F9e9zj5s_processed.png&w=3840&q=75)
Transcribed Image Text:11) For the circuit shown in the figure, the switch S is initially open and the capacitor
is uncharged. The switch is then closed at time t = 0. How many seconds after closing
the switch will the energy stored in the capacitor be equal to 50.2 mJ?
40 V
(a) 81 s
(b) 65 s
(c) 978
(d) 110 s
(e) 130 s
www
0.50 ΜΩ
90 μF
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