i. 247.32µF 18.42µF 74.38µF ii. iii. iv. 37.5µF 70 uF 4nF 100 μF 96 µF 200 μ 25 µF Ceq Compute the capacitance of a parallel-plate capacitor having rectangular plates of 64 cm by 42 cm. These plates are place between a porcelain dielectric (e, = 2.6) with a separation of 0.3 cm. If a voltage of 55V is applied to the capacitor, how much energy the capacitor store? C = 183.5pF, w = 52.9 nJ C = 2.06nF, w = 3.12 µl C= 233.13F, w = 352kJ C = 20.6 µF, w = 3.12 mJ i. %3! ii. iii. iv. 2.

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. Find the equivalent capacitance in the following circuit. 2. Compute the capacitance of a parallel-plate having rectangular plates of 64cm by 42 cm. These plates are placed between a porcelain dielectric (Er=2.6) with a separation of 0.3cm. If a voltage of 55V is applied to the capacitor, how much energy can the capacitor store ..
247.32µF
18.42µF
74.38µF
i.
ii.
iii.
iv.
37.5µF
70 uF
4nF
100 µF
96 µF
200 μF_
25 µF
Ceq
2.
Compute the capacitance of a parallel-plate capacitor having
rectangular plates of 64 cm by 42 cm. These plates are place between a porcelain
dielectric (e, = 2.6) with a separation of 0.3 cm. If a voltage of 55V is applied to the
capacitor, how much energy the capacitor store?
C = 183.5pF, w = 52.9 nJ
C = 2.06nF, w = 3.12 µl
C= 233.13F, w = 352kJ
C = 20.6 µF, w = 3.12 mJ
i.
%3D
ii.
iii.
iv.
Transcribed Image Text:247.32µF 18.42µF 74.38µF i. ii. iii. iv. 37.5µF 70 uF 4nF 100 µF 96 µF 200 μF_ 25 µF Ceq 2. Compute the capacitance of a parallel-plate capacitor having rectangular plates of 64 cm by 42 cm. These plates are place between a porcelain dielectric (e, = 2.6) with a separation of 0.3 cm. If a voltage of 55V is applied to the capacitor, how much energy the capacitor store? C = 183.5pF, w = 52.9 nJ C = 2.06nF, w = 3.12 µl C= 233.13F, w = 352kJ C = 20.6 µF, w = 3.12 mJ i. %3D ii. iii. iv.
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