4. Two-point charges are arranged on the x-y coordinate system as follows: Q, =+ 3.0 µC at 300 cm away from the origin and Q, =– 600. 0 nC at 520 cm away. a. What is the magnitude of electric field of Q, = 3.0 µC at point P? =- 600. 0 nC at point P? b. What is the magnitude of electric field of Q, C. Use vector component method to present the horizontal and vertical components of the fields. VERTICAL COMPONENT FIELD HORIZONTAL CCOMPONENT d. What is the total electric field? Qi = + 3.0 µC 600 cm 30° ( P 520 cm Q2 = - 600.0 nC 300 cm

4. Two-point charges are arranged on the x-y coordinate system as follows: Q, =+ 3.0 µC at 300 cm away from the origin and Q, =– 600. 0 nC at 520 cm away. a. What is the magnitude of electric field of Q, = 3.0 µC at point P? =- 600. 0 nC at point P? b. What is the magnitude of electric field of Q, C. Use vector component method to present the horizontal and vertical components of the fields. VERTICAL COMPONENT FIELD HORIZONTAL CCOMPONENT d. What is the total electric field? Qi = + 3.0 µC 600 cm 30° ( P 520 cm Q2 = - 600.0 nC 300 cm

Physics for Scientists and Engineers

10th Edition

ISBN:9781337553278

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter22: Electricity And Magnetism

Section: Chapter Questions

Problem 49CP: Two particles, each with charge 52.0 nC, are located on the y axis at y = 25.0 cm and y = 25.0 cm....

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Electric Charges and Fields

One of the fundamental properties is the electromagnetic property. Charge cannot be destroyed by any process and this contributes formally to the law of charge conservation.

Question

4. Two-point charges are arranged on the x-y coordinate system as follows: Q, =+ 3.0 µC at 300 cm away
from the origin and Q :
=- 600. 0 nC at 520 cm away.
a. What is the magnitude of electric field of Q, = 3.0 µC at point P?
=- 600. 0 nC at point P?
b. What is the magnitude of electric field of Q,
C.
Use vector component method to present the horizontal and vertical components of the fields.
VERTICAL COMPONENT
FIELD
HORIZONTAL COMPONENT
d. What is the total electric field?
Qi = + 3.0 µC
600 cm
30° (
520 cm
P
Q2 = - 600.0 nC
300 cm

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