GO Figure 22-40 shows a proton (р) on the central axis through a disk with a uniform charge density due to excess electrons. The disk is seen from an edge-on view. Three of those electrons are shown: electron e c at the disk center and electrons e s at opposite sides of the disk, at radius R from the center. The proton is initially at distance z = R = 2.00 cm from the disk. At that location, what are the magnitudes of (a) the electric field E c → due to electron e c and (b) the net electric field E → s , net due to electrons e s ? The proton is then moved to z = R /10.0. What then are the magnitudes of (с) E c → and (d) E → s , net at the proton's location? (e) From (a) and (c) we see that as the proton gets nearer to the disk, the magnitude of E c → increases, as expected. Why does the magnitude of E → s , net from the two side electrons decrease, as we see from (b) and (d)? Figure 22-40 Problem 13.
GO Figure 22-40 shows a proton (р) on the central axis through a disk with a uniform charge density due to excess electrons. The disk is seen from an edge-on view. Three of those electrons are shown: electron e c at the disk center and electrons e s at opposite sides of the disk, at radius R from the center. The proton is initially at distance z = R = 2.00 cm from the disk. At that location, what are the magnitudes of (a) the electric field E c → due to electron e c and (b) the net electric field E → s , net due to electrons e s ? The proton is then moved to z = R /10.0. What then are the magnitudes of (с) E c → and (d) E → s , net at the proton's location? (e) From (a) and (c) we see that as the proton gets nearer to the disk, the magnitude of E c → increases, as expected. Why does the magnitude of E → s , net from the two side electrons decrease, as we see from (b) and (d)? Figure 22-40 Problem 13.
GO Figure 22-40 shows a proton (р) on the central axis through a disk with a uniform charge density due to excess electrons. The disk is seen from an edge-on view. Three of those electrons are shown: electron ec at the disk center and electrons es at opposite sides of the disk, at radius R from the center. The proton is initially at distance z = R = 2.00 cm from the disk. At that location, what are the magnitudes of (a) the electric field
E
c
→
due to electron ec and (b) the net electric field
E
→
s
,
net
due to electrons es? The proton is then moved to z = R/10.0. What then are the magnitudes of (с)
E
c
→
and (d)
E
→
s
,
net
at the proton's location? (e) From (a) and (c) we see that as the proton gets nearer to the disk, the magnitude of
E
c
→
increases, as expected. Why does the magnitude of
E
→
s
,
net
from the two side electrons decrease, as we see from (b) and (d)?
Rank the six combinations of electric charges on the basis of the electric force acting on 91. Define forces pointing to the right as positive and forces pointing to the left as negative.
Rank in increasing order by placing the most negative on the left and the most positive on the right. To rank items as equivalent, overlap them.
▸ View Available Hint(s)
[most negative
91 = +1nC
92 = +1nC
91 = -1nC
93 = +1nC
92- +1nC
93 = +1nC
-1nC
92- -1nC
93- -1nC
91= +1nC
92 = +1nC
93=-1nC
91
+1nC
92=-1nC
93=-1nC
91 = +1nC
2 = −1nC
93 = +1nC
The correct ranking cannot be determined.
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most positive
Part A
Find the x-component of the electric field at the origin, point O.
Express your answer in newtons per coulomb to three significant figures, keeping in mind that an x component that points to the right is positive.
▸ View Available Hint(s)
Eoz =
Η ΑΣΦ
?
N/C
Submit
Part B
Now, assume that charge q2 is negative; q2 = -6 nC, as shown in (Figure 2). What is the x-component of the net electric field at the origin, point O?
Express your answer in newtons per coulomb to three significant figures, keeping in mind that an x component that points to the right is positive.
▸ View Available Hint(s)
Eoz=
Η ΑΣΦ
?
N/C
1. A charge of -25 μC is distributed uniformly throughout a spherical volume of radius 11.5 cm.
Determine the electric field due to this charge at a distance of (a) 2 cm, (b) 4.6 cm, and (c) 25 cm from
the center of the sphere.
(a) =
=
(b) E =
(c)Ẻ =
=
NC NC NC
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