2. In Fig. 3 a rod of length 0.4 m is pulled to the right at a speed v= 2.0 m/s. The rod slides (frictionlessly) on a set of metal rails that do not move. A uniform magnetic field of magnitude 0.75 T saturates the area as shown by the X's. a. b. C. X X X Determine the direction of the induced current in the rod. Calculate the absolute value of the induced EMF in the rod. Suppose the electrical resistance of the rod is 2.0 Ohms but the rails have negligible resistance. Calculate the magnitude of the magnetic braking force on the rod. X X X U X X X X X X X X X X X B X X X X X Fig. 3 X

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2.
In Fig. 3 a rod of length 0.4 m is pulled to the right at a speed v= 2.0 m/s. The rod
slides (frictionlessly) on a set of metal rails that do not move. A uniform magnetic field of
magnitude 0.75 T saturates the area as shown by the X's.
a.
b.
C.
Determine the direction of the induced current in the rod.
Calculate the absolute value of the induced EMF in the rod.
X
Suppose the electrical resistance of the rod is 2.0 Ohms but the rails have
negligible resistance. Calculate the magnitude of the magnetic braking force on the
rod.
X
X X X
X
X X
X
x
X
x
Fig. 3
X
B L
Transcribed Image Text:2. In Fig. 3 a rod of length 0.4 m is pulled to the right at a speed v= 2.0 m/s. The rod slides (frictionlessly) on a set of metal rails that do not move. A uniform magnetic field of magnitude 0.75 T saturates the area as shown by the X's. a. b. C. Determine the direction of the induced current in the rod. Calculate the absolute value of the induced EMF in the rod. X Suppose the electrical resistance of the rod is 2.0 Ohms but the rails have negligible resistance. Calculate the magnitude of the magnetic braking force on the rod. X X X X X X X X x X x Fig. 3 X B L
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