Use the figure below. A conducting rod is free to slide on two conducting rails. At one end of the rails, a light bulb connects the two, completing a circuit. The length of the rod is 1.856 m (equal to the spacing of the rails). The entire area is covered by a magnetic field, into the plane as shown in the figure. The bar is moving at 16.33 m/s. What is the strength of the magnetic field if the circuit provides steady-state power of 41.10 W to the light bulb which has a resistance of 10.05 Ohms? (unit in T)
Use the figure below. A conducting rod is free to slide on two conducting rails. At one end of the rails, a light bulb connects the two, completing a circuit. The length of the rod is 1.856 m (equal to the spacing of the rails). The entire area is covered by a magnetic field, into the plane as shown in the figure. The bar is moving at 16.33 m/s. What is the strength of the magnetic field if the circuit provides steady-state power of 41.10 W to the light bulb which has a resistance of 10.05 Ohms? (unit in T)
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Use the figure below. A conducting rod is free to slide on two conducting rails. At one end of the rails, a light bulb connects the two, completing a circuit. The length of the rod is 1.856 m (equal to the spacing of the rails). The entire area is covered by a magnetic field, into the plane as shown in the figure. The bar is moving at 16.33 m/s. What is the strength of the magnetic field if the circuit provides steady-state power of 41.10 W to the light bulb which has a resistance of 10.05 Ohms? (unit in T)
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A) 3.61E-01
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B) 1.24E-01
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C) 1.09E+00
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D) 1.36E+01
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E) 1.70E-01
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F) 6.71E-01
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G)2.53E-04
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H) 3.45E+00
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