As shown in the figure, two frictionless conducting rails (#1 and #2) are attached to a 20.0° incline such that the inside dges are 80.0 cm apart. A copper bar with a mass of 0.292 kg slides (without friction) at a constant speed down the onducting rails. Sliding bar Conducting rails If there is a vertical magnetic field of 0.0496 T in magnitude in the region of the incline, determine the magnitude of the current I that flows through the sliding copper bar. What is the direction of the current in the sliding bar? O from rail #2 to rail #1 O from rail #1 to rail #2

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Author:Raymond A. Serway, Chris Vuille
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Chapter1: Units, Trigonometry. And Vectors
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As shown in the figure, two frictionless conducting rails (#1 and #2) are attached to a 20.0° incline such that the inside
edges are 80.0 cm apart. A copper bar with a mass of 0.292 kg slides (without friction) at a constant speed down the
conducting rails.
Sliding bar
Conducting rails
#1
If there is a vertical magnetic field of 0.0496 T in magnitude in the region of the incline, determine the magnitude of the
current I that flows through the sliding copper bar.
I =
A
What is the direction of the current in the sliding bar?
O from rail #2 to rail #1
O from rail #1 to rail #2
Transcribed Image Text:As shown in the figure, two frictionless conducting rails (#1 and #2) are attached to a 20.0° incline such that the inside edges are 80.0 cm apart. A copper bar with a mass of 0.292 kg slides (without friction) at a constant speed down the conducting rails. Sliding bar Conducting rails #1 If there is a vertical magnetic field of 0.0496 T in magnitude in the region of the incline, determine the magnitude of the current I that flows through the sliding copper bar. I = A What is the direction of the current in the sliding bar? O from rail #2 to rail #1 O from rail #1 to rail #2
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