(III) A very large (i.e., assume infinite) flat slab of nonconducting material has thickness d and a uniform volume charge density + ρ E . ( a ) Show that a uniform electric field exists outside of this slab. Determine its magnitude E and its direction (relative to the slab’s surface). ( b ) As shown in Fig. 22–39, the slab is now aligned so that one of its surfaces lies on the line y = x . At time t = 0, a pointlike particle (mass m , charge + q ) is located at position r → = + y 0 j ^ and has velocity v → = v 0 i ^ . Show that the particle will collide with the slab if v 0 ≥ 2 q y 0 ρ E d / ∈ 0 m . Ignore gravity. FIGURE 22–39 Problem 43.
(III) A very large (i.e., assume infinite) flat slab of nonconducting material has thickness d and a uniform volume charge density + ρ E . ( a ) Show that a uniform electric field exists outside of this slab. Determine its magnitude E and its direction (relative to the slab’s surface). ( b ) As shown in Fig. 22–39, the slab is now aligned so that one of its surfaces lies on the line y = x . At time t = 0, a pointlike particle (mass m , charge + q ) is located at position r → = + y 0 j ^ and has velocity v → = v 0 i ^ . Show that the particle will collide with the slab if v 0 ≥ 2 q y 0 ρ E d / ∈ 0 m . Ignore gravity. FIGURE 22–39 Problem 43.
(III) A very large (i.e., assume infinite) flat slab of nonconducting material has thickness d and a uniform volume charge density +ρE. (a) Show that a uniform electric field exists outside of this slab. Determine its magnitude E and its direction (relative to the slab’s surface). (b) As shown in Fig. 22–39, the slab is now aligned so that one of its surfaces lies on the line y = x. At time t = 0, a pointlike particle (mass m, charge +q) is located at position
r
→
=
+
y
0
j
^
and has velocity
v
→
=
v
0
i
^
. Show that the particle will collide with the slab if
v
0
≥
2
q
y
0
ρ
E
d
/
∈
0
m
. Ignore gravity.
What is the force (in N) on the 2.0 μC charge placed at the center of the square shown below? (Express your answer in vector form.)
5.0 με
4.0 με
2.0 με
+
1.0 m
1.0 m
-40 με
2.0 μC
What is the force (in N) on the 5.4 µC charge shown below? (Express your answer in vector form.) −3.1 µC5.4 µC9.2 µC6.4 µC
An ideal gas in a sealed container starts out at a pressure of 8900 N/m2 and a volume of 5.7 m3. If the gas expands to a volume of 6.3 m3 while the pressure is held constant (still at 8900 N/m2), how much work is done by the gas? Give your answer as the number of Joules.
Chapter 22 Solutions
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