In the circuit given below, the value of V in terms of VS and IS using Superposition Theorem is ___________

V = \(\frac{2}{7} I_S – \frac{4}{7} V_S\)

V = \(\frac{2}{7} V_S + \frac{4}{7} I_S\)

V = \(\frac{2}{7} V_S – \frac{4}{7} I_S\)

V = \(\frac{2}{7} I_S – \frac{4}{7} V_S\)

In the circuit given below, the value of V in terms of VS and IS using

1.	In the circuit given below, the value of V in terms of VS and IS using Superposition Theorem is ___________
A.	V = \(\frac{2}{7} I_S – \frac{4}{7} V_S\)
B.	V = \(\frac{2}{7} V_S + \frac{4}{7} I_S\)
C.	V = \(\frac{2}{7} V_S – \frac{4}{7} I_S\)
D.	V = \(\frac{2}{7} I_S – \frac{4}{7} V_S\)
Answer» D.