Figure 26-17 shows a rectangular solid conductor of edge lengths L , 2 L , and 3 L . A potential difference V is to be applied uniformly between pairs of opposite faces of the conductor as in Fig. 26-8 b. (The potential difference is applied between the entire face on one side and the entire face on the other side.) First V is applied between the left – right faces, then between the top–bottom faces, and then between the front – back faces. Rank those pairs, greatest first, according to the following (within the conductor): (a) the magnitude of the electric field, (b) the current density, (c) the current, and (d) the drift speed of the electrons. Figure 26-17 Question 3.
Figure 26-17 shows a rectangular solid conductor of edge lengths L , 2 L , and 3 L . A potential difference V is to be applied uniformly between pairs of opposite faces of the conductor as in Fig. 26-8 b. (The potential difference is applied between the entire face on one side and the entire face on the other side.) First V is applied between the left – right faces, then between the top–bottom faces, and then between the front – back faces. Rank those pairs, greatest first, according to the following (within the conductor): (a) the magnitude of the electric field, (b) the current density, (c) the current, and (d) the drift speed of the electrons. Figure 26-17 Question 3.
Figure 26-17 shows a rectangular solid conductor of edge lengths L, 2L, and 3L. A potential difference V is to be applied uniformly between pairs of opposite faces of the conductor as in Fig. 26-8b. (The potential difference is applied between the entire face on one side and the entire face on the other side.) First V is applied between the left – right faces, then between the top–bottom faces, and then between the front – back faces. Rank those pairs, greatest first, according to the following (within the conductor): (a) the magnitude of the electric field, (b) the current density, (c) the current, and (d) the drift speed of the electrons.
20. Two small conducting spheres are placed on top of insulating pads. The 3.7 × 10-10 C sphere is fixed whie
the 3.0 × 107 C sphere, initially at rest, is free to move. The mass of each sphere is 0.09 kg. If the spheres
are initially 0.10 m apart, how fast will the sphere be moving when they are 1.5 m apart?
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