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- When the North pole of a bar magnet is pushed towards the coil, the pointer in the galvanometer deflects. Fig. (i) show that it is the relative motion between the magnet and coil that is responsible for generation of electric current in the coil. In Fig. (ii), the bar magnet is replaced by a second coil C2 connected to a battery. The steady current in the coil C2 produces a steady magnet field. As coil C2 is moved toward the coil C1, the galvanometer shows a deflection. Again, it is the relative motion between the coils that induces the electric current. <img class=img-fluid question-image alt=image src=https://cdn.tardigrade.in/img/question/physics/0186e2633396ebc6193886bfd67f3a71-.png /> The change in magnetic flux
Q.
When the North pole of a bar magnet is pushed towards the coil, the pointer in the galvanometer deflects. Fig. (i) show that it is the relative motion between the magnet and coil that is responsible for generation of electric current in the coil. In Fig. (ii), the bar magnet is replaced by a second coil connected to a battery. The steady current in the coil produces a steady magnet field.
As coil is moved toward the coil , the galvanometer shows a deflection. Again, it is the relative motion between the coils that induces the electric current.
The change in magnetic flux
Solution: