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Use the Following to Answer the Problem:

-An Infinite $\lambda$

Question 6

Multiple Choice

Use the following to answer the problem:
$Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$
-An infinite line charge of linear density $\lambda$ = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately

A) (4.2 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$
B) (4.2 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$ + (0.64 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$
C) (-0.96 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$
D) (2.8 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$ + (0.64 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$
E) (5.2 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$ - (2.3 kN/C) $Use the following to answer the problem: -An infinite line charge of linear density \lambda = 0.30 µC/m lies along the z axis and a point charge q = 6.0 µC lies on the y axis at y = 2.0 m. The electric field at the point P on the x axis at x = 3.0 m is approximately A) (4.2 kN/C) B) (4.2 kN/C) + (0.64 kN/C) C) (-0.96 kN/C) D) (2.8 kN/C) + (0.64 kN/C) E) (5.2 kN/C) - (2.3 kN/C)$