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An electric dipole is placed as shown in the figure. The electric potential (in $10^2 V$ ) at point P due to the dipole is ( $\varepsilon_0$ = permittivity of free space and $K = \frac{1}{4 \pi \varepsilon_0}$ ):

medium

Electric Charges and Fields

2023

physics

$\frac{3 qK}{8}$

$\frac{5 qK}{8}$

Explanation

To find the electric potential at point P due to the dipole, we need to calculate the potential due to each charge separately and then sum them. $\\$ Given: $\\$ • The distance from $-q$ to P is $8$ cm (3 cm + 5 cm). $\\$ • The distance from $+q$

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An electric dipole is placed as shown in the figure. The electric potential (in 102V 10^2 V 102V) at point P due to the dipole is (ε0 \varepsilon_0 ε0​ = permittivity of free space and K=14πε0 K = \frac{1}{4 \pi \varepsilon_0} K=4πε0​1​):

Explanation

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An electric dipole is placed as shown in the figure. The electric potential (in $10^2 V$ ) at point P due to the dipole is ( $\varepsilon_0$ = permittivity of free space and $K = \frac{1}{4 \pi \varepsilon_0}$ ):