\[\text { Figure } 4 1 =16 V, R 5 =10 $\mathrm { k } \Omega$ R 2 =10$\mathrm { k } \Omega$ and R 3 =15$\mathrm { k } \Omega$ in Figure 4-1 . If R 2 opens, then RT is A) 10 $\mathrm { k } \Omega$ B) 25 $k \Omega$ C) 0 D) infinite $\Omega$

The Answer of \[\text { Figure } 4 1 =16 V, R 5 =10 $\mathrm { k } \Omega$ R 2 =10$\mathrm { k } \Omega$ and R 3 =15$\mathrm { k } \Omega$ in Figure 4-1 . If R 2 opens, then RT is A) 10 $\mathrm { k } \Omega$ B) 25 $k \Omega$ C) 0 D) infinite $\Omega$

\[\text { Figure } 4 1 =16 V, R 5 =10 $\mathrm { k } \Omega$ R 2 =10$\mathrm { k } \Omega$ and R 3 =15$\mathrm { k } \Omega$ in Figure 4-1 . If R 2 opens, then RT is A) 10 $\mathrm { k } \Omega$ B) 25 $k \Omega$ C) 0 D) infinite $\Omega$

The Answer of \[\text { Figure } 4 1 =16 V, R 5 =10 $\mathrm { k } \Omega$ R 2 =10$\mathrm { k } \Omega$ and R 3 =15$\mathrm { k } \Omega$ in Figure 4-1 . If R 2 opens, then RT is A) 10 $\mathrm { k } \Omega$ B) 25 $k \Omega$ C) 0 D) infinite $\Omega$

Solved

$\text { Figure } 4 < 1$ -VR₁=16 V, R₅=10 $\mathrm { k } \Omega$

Question 13

Multiple Choice

$\text { Figure } 4 < 1 -VR<sub>1</sub>=16 V, R<sub>5</sub>=10 \mathrm { k } \Omega R<sub>2</sub>=10 \mathrm { k } \Omega and R<sub>3</sub>=15 \mathrm { k } \Omega in Figure 4-1 . If R<sub>2</sub> opens, then RT is A) 10 \mathrm { k } \Omega B) 25 k \Omega C) 0 D) infinite \Omega$
$\text { Figure } 4 < 1$
-VR₁=16 V, R₅=10 $\mathrm { k } \Omega$
R₂=10 $\mathrm { k } \Omega$ and R₃=15 $\mathrm { k } \Omega$ in Figure 4-1 . If R₂ opens, then RT is

A) 10 $\mathrm { k } \Omega$
B) 25 $k \Omega$
C) 0 $\text { Figure } 4 < 1 -VR<sub>1</sub>=16 V, R<sub>5</sub>=10 \mathrm { k } \Omega R<sub>2</sub>=10 \mathrm { k } \Omega and R<sub>3</sub>=15 \mathrm { k } \Omega in Figure 4-1 . If R<sub>2</sub> opens, then RT is A) 10 \mathrm { k } \Omega B) 25 k \Omega C) 0 D) infinite \Omega$
D) infinite $\Omega$