A hollow spherical shell with a diameter of 3.8 cm has a charge of 1.91 n C placed at its center. Calculate the electric flux through a portion of the shell with an area of 1.40 X 10-2 m² zero 80 Nm^2/C 56 2 Nm^2/C 215.8 Nm^2/C O O

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A hollow spherical shell with a diameter of 3.8 cm has a charge of 1.91 n C placed at its center.
Calculate the electric flux through a portion of the shell with an area of 1.40 X 10-2 m2
zero
80 Nm^2/C
56 2 Nm^2/C
215.8 Nm^2/C
Transcribed Image Text:A hollow spherical shell with a diameter of 3.8 cm has a charge of 1.91 n C placed at its center. Calculate the electric flux through a portion of the shell with an area of 1.40 X 10-2 m2 zero 80 Nm^2/C 56 2 Nm^2/C 215.8 Nm^2/C
Expert Solution
GIVEN:

Diameter of the hollow spherical shell is given as, d = 3.8 cm

Radius of hollow spherical shell is found to be, r = d2

r = 1.9 cm

Charge of the shell is given as, q = 1.91 n C (or) q = 1.91×10-9 C

The area of portion in the shell is given as, dA = 1.40×10-2 m2

TO DETERMINE:

Electric flux through a portion of shell having area, dA

SOLUTION:

According to Gauss law, The electric flux for a small portion of area dA is calculated using the formula,

ϕ = EdAcosθ

Where,

E is the electric field of the point charge,

dA is the small area of the spherical shell

θ is the angle between the electric field lines and the area

The electric field of the point charge, which is placed inside the shell is calculated using the following consideration. Let us select a Gaussian surface concentric with the shell of radius less than the radius of the hollow spherical shell. Therefore,

E.dA = E(4πr2)

According to Gauss law, we have,

E(4πr2) = Qεo

Where,

εo is the permittivity of free space.

Since, the charge is enclosed inside the spherical shell is zero, here the electric field also becomes zero.

E = 0

Therefore, the electric flux also becomes zero.

ϕ = 0

Hence, OPTION (A) is Correct.

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