A straight line segment of length L lies along the z-axis. From z = 0 to z = L/2, the charge density is +p, while from z = 0 to z = -L/2, the charge density is -p. Using Coulomb's Law, calculate the electric field, Ę in the xz-plane (i.e., calculate Ex(x, 0, z) and Ex(x, 0, 2)), that results from this charge distribution. The following may be useful: dx | [a² + 22/3/2 xdx ||a²±²√3/2 = 1 Ꮖ a² [a² + x²]1/2 = F· 1 [a²±x²] 1/2

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A straight line segment of length L lies along the z-axis. From z = 0 to z = L/2, the
charge density is +p, while from z = 0 to z = -L/2, the charge density is -p. Using
Coulomb's Law, calculate the electric field, Ę in the xz-plane (i.e., calculate Ex(x, 0, z)
and Ex(x, 0, 2)), that results from this charge distribution.
The following may be useful:
dx
| [a² + 22/3/2
xdx
||a²±²√3/2
=
1
Ꮖ
a² [a² + x²]1/2
= F·
1
[a²±x²] 1/2
Transcribed Image Text:A straight line segment of length L lies along the z-axis. From z = 0 to z = L/2, the charge density is +p, while from z = 0 to z = -L/2, the charge density is -p. Using Coulomb's Law, calculate the electric field, Ę in the xz-plane (i.e., calculate Ex(x, 0, z) and Ex(x, 0, 2)), that results from this charge distribution. The following may be useful: dx | [a² + 22/3/2 xdx ||a²±²√3/2 = 1 Ꮖ a² [a² + x²]1/2 = F· 1 [a²±x²] 1/2
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