Statement-1 : When a magnet is made to fall freely through a closed coil, its acceleration is always less than acceleration due to gravity.
Statement-2 : Current induced in the coil opposes the motion of the magnet, as per Lenz's law.

Direction. In the following questions, a statement of assertion is followed by a statement of reason. While answering a question, you are required to choose the correct are out of the given four responses and mark it as (A). If both assertion and reason are true and reason is the correct explanation of the assertion, (B) if both assertion and reason are true but reason is not correct explanation of the assertion. (C) if assertion is true, but reason if false, (D) if both assertion and reason are false Assertion : When a bar magnet falls freely along the axis of a solenoid held vertically, its acceleration is less than the acceleration due to gravity Reason: The falling magnet induces current in the solenoid and according to Lenz's law, the induced current opposes the falling motion of the magnet

A small magnet M is allowed to fall through a fixed horizontal conducting ring. Let g be the acceleration due to gravity. Then the acceleration of M will be

A small magnet M is allowed to fall through a fixed horizontal conducting ring R . Let g be the acceleration due to gravity. The acceleration of M will be

A small magnet M is allowed to fall through a fixed horizontal conducting ring R . Let g be the acceleration due to gravity. The acceleration of M will be

A bar magnet is allowed to fall vertically through a copper coil placed in a horizontal plane. The magnet falls with a net acceleration

Assertion. The bar magnet falling vertically along the axis of the horizontal coil will be having acceleartion less than g . Resaon. Clockwise current induced in the coil.

Assertion. The bar magnet falling vertically along the axis of the horizontal coil will be having acceleartion less than g . Resaon. Clockwise current induced in the coil.

state the rule to determine the direction of a current induced in a coil due to its rotation in a magnetic field.