In the figure, magnetic field points into the pane of paper and the conducting rod of length `l` is moving in this field such that the lowest point has a velocity `v_1` and the topmost point has the velocity `v_2(v_2gtv_1)`. The emf induced is given by

A rod of length l is moving in a vertical plane ( x-y ) when the lowest point A of the rod is moved with a velocity v . find the a angular velocity of the rod and b velocity of the end B .

A conducting rod of length l is moving in a transverse magnetic field of strength B with veocity v. The resistance of the rod is R. The current in the rod is

A conducting rod of length l is moving in a transverse magnetic field of strength B with veocity v. The resistance of the rod is R. The current in the rod is

A rod of length l is moving velocity v "in magnetic field" b as seen in . Find the emf induced in all three cases. (a)

A rod of length l is moving velocity v "in magnetic field" b as seen in . Find the emf induced in all three cases. (a)

The magnetic field in a region is given by vecB=B_(0)/Lxhatk where L is a fixed length.A conducting rod of length lies along the X -axis between the origin and the point (L,0,0) .If the rod moves with a velocity vecv=v_(0) hatj the emf induced between the ends of the rod.

The magnetic field in a region is given by vecB=B_(0)/Lxhatk where L is a fixed length.A conducting rod of length lies along the X -axis between the origin and the point (L,0,0) .If the rod moves with a velocity vecv=v_(0) hatj the emf induced between the ends of the rod.

A conducting rod of length 'l' is moved in a magnetic field of magnitude B with velocity v such that the arrangement is mutually perpendicular. Prove that the e.m.f. induced in the rod is |E| = Blv .

A conducting rod of length 'l' is moved in a magnetic field of magnitude B with velocity v such that the arrangement is mutually perpendicular. Prove that the e.m.f. induced in the rod is |E| = Blv .

A conducting rod of length l is rotating with constant angular velocity omega about point O in a uniform magnetic field B as shown in the figure . What is the emf induced between ends P and Q ?