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A square conducting loop, 20.0 cm on a side, is placed in the same magnetic field as shown in Exercise 29.30. (See Fig. 29.55; the center of the square loop is at the center of the magnetic-field region.) (a) Copy Fig. 29.55, and draw vectors to show the directions and relative magnitudes of the induced electric field at points a, b, and c. (b) Prove that the component of along the loop has the same value at every point of the loop and is equal to that of the ring shown in Fig. 29.31 (see Exercise 29.30). (c) What current is induced in the loop if its resistance is 1.90 Ω? (d) What is the potential difference between points a and b?
The magnetic field at all points within the colored circle shown in Fig. 29.31 has an initial magnitude of 0.750 T. (The circle could represent approximately the space inside a long, thin solenoid.) The magnetic field is directed into the plane of the diagram and is decreasing at the rate of −0.0350 T/s. (a) What is the shape of the field lines of the induced electric field shown in Fig. 29.31, within the colored circle? (b) What are the magnitude and direction of this field at any point on the circular conducting ring with radius 0.100 m? (c) What is the current in the ring if its resistance is 4.00 Ω? (d) What is the emf between points a and b on the ring? (e) If the ring is cut at some point and the ends are separated slightly, what will be the emf between the ends?
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