A square of side $L$ meters lies in the $x-y$ plane in a region, where the magnetic field is given by
$\vec{B}= B_0 (2\hat{i} + 3\hat{j} +4\hat{k})T$
where $B_0$ is constant. The magnitude of flux passing through the square is
Updated On: Jul 6, 2022
$2B_{0} L^{2}Wb$
$3B_{0} L^{2}Wb$
$4B_{0} L^{2}Wb$
$\sqrt{29}B_{0}L^{2}Wb$
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The Correct Option isC
Solution and Explanation
Here, $\vec{B} = B_{0} \left(2\hat{i} +3\hat{j} +4\hat{k}\right) T $
Area of the square $= L^2 \hat{k} m^2$$\therefore$ Flux passing through the square,
$\phi = \vec{B} \cdot \vec{ A} =B_0 (2\hat i + 3\hat j + 4\hat k) \cdot L^2 \hat k $$= 4\,B_0 L^2 Wb$
Electromagnetic Induction is a current produced by the voltage production due to a changing magnetic field. This happens in one of the two conditions:-
When we place the conductor in a changing magnetic field.
When the conductor constantly moves in a stationary field.