An ideal cell of emf 10V is connected in circuit shown in figure. Each resistance is 2Ω. The potential difference (in V ) across the capacitor when it is fully charged is .

Question

An ideal cell of emf 10V is connected in circuit shown in figure. Each resistance is 2Ω. The potential difference (in V ) across the capacitor when it is fully charged is . <img class="img-fluid question-image" alt="Question" src="https://cdn.tardigrade.in/q/nta/p-u5mfvwsdhwxx780m.jpg" /> (A)  (B)  (C)  (D)

Tardigrade Admin · Accepted Answer

<img class="img-fluid question-image" alt="Solution" src="https://cdn.tardigrade.in/q/nta/p-u5mfvwsdhwxxdiso.jpg" /> i=(10/(4)3 + 2)=(10 × 3/10)=3Amp i1=2Amp i2=1Amp VA B=1× 2+3× 2=8V

Q. An ideal cell of emf $10 V$ is connected in circuit shown in figure. Each resistance is $2Ω.$ The potential difference (in $V$ ) across the capacitor when it is fully charged is ______.

$i = \frac{10}{\frac{4}{3} + 2} = \frac{10 \times 3}{10} = 3 A m p$
$i_{1} = 2 A m p$
$i_{2} = 1 A m p$
$V_{A B} = 1 \times 2 + 3 \times 2 = 8 V$

Q. An ideal cell of emf 10V is connected in circuit shown in figure. Each resistance is 2Ω. The potential difference (in V ) across the capacitor when it is fully charged is ______.

i=34​+210​=1010×3​=3Amp i1​=2Amp i2​=1Amp VAB​=1×2+3×2=8V

Q. An ideal cell of emf $10 V$ is connected in circuit shown in figure. Each resistance is $2Ω.$ The potential difference (in $V$ ) across the capacitor when it is fully charged is ______.

$i = \frac{10}{\frac{4}{3} + 2} = \frac{10 \times 3}{10} = 3 A m p$
$i_{1} = 2 A m p$
$i_{2} = 1 A m p$
$V_{A B} = 1 \times 2 + 3 \times 2 = 8 V$