Shown in the figure below is a collection of two charges labeled as q, and q2. Also labeled is the "Point P", which is where we will do our calculations. To understand the notation, please note the following: 92 (X2, Y2) 91 (X1, 0) (Xp, 0) not to scale • The vector E¡ means the electric field at P due only to q1- • The vector E, means the electric field at P due only to q2- • The vector Etot means the total electric field at P due to all charges. Item Charge (C) (х,у) m ( 6.63 , 0.00 ) P None q1 -6.14e-06 (-2.13 , 0.00 ) q2 3.47e-06 (1.40 , 2.71 ) Determine the distance from q, to P: r = Determine the distance from q, to P: rɔ = Determine the magnitude of E1. | E¡ | = Determine the magnitude of E2. | E2 | = Fill in the following table with all the appropriate components: Item x-component (N/C) y-component (N/C) E1 E2 Etot

Shown in the figure below is a collection of two charges labeled as q, and q2. Also labeled is the "Point P", which is where we will do our calculations. To understand the notation, please note the following: 92 (X2, Y2) 91 (X1, 0) (Xp, 0) not to scale • The vector E¡ means the electric field at P due only to q1- • The vector E, means the electric field at P due only to q2- • The vector Etot means the total electric field at P due to all charges. Item Charge (C) (х,у) m ( 6.63 , 0.00 ) P None q1 -6.14e-06 (-2.13 , 0.00 ) q2 3.47e-06 (1.40 , 2.71 ) Determine the distance from q, to P: r = Determine the distance from q, to P: rɔ = Determine the magnitude of E1. | E¡ | = Determine the magnitude of E2. | E2 | = Fill in the following table with all the appropriate components: Item x-component (N/C) y-component (N/C) E1 E2 Etot

University Physics Volume 2

18th Edition

ISBN:9781938168161

Author:OpenStax

Publisher:OpenStax

Chapter5: Electric Charges And Fields

Section: Chapter Questions

Problem 101P: In this exercise, you practice electric field lines. Make sure you represent both the magnitude and...

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Please show work. Two identical charges, both labeled q1q1 in the diagram, are placed on the xx axis at (−a,0)(−a,0) and (+a,0)(+a,0). The electric field is observed at point PP, located on the yy axis at (0,+a)(0,+a). Charge q2q2 is added at the origin so that the net electric field at the observation point PP is zero. If q1=q1=3.5 μC and a=a=4.4 m, what is the value of charge q2q2, in microcoulombs?
Shown in the figure below is a collection of two charges labeled as q1 and q2. Also labeled is the "Point P", which is where we will do our calculations. To understand the notation, please note the following: The vector E1 means the electric field at P due only to q1. The vector E2 means the electric field at P due only to q2. The vector Etot means the total electric field at P due to all charges. Item Charge (C) (x,y) m P None ( 6.58 , 0.00 ) q1 -6.42e-06 ( -2.48 , 0.00 ) q2 3.57e-06 ( 1.03 , 1.41 ) Determine the distance from q1 to P: r1 = Determine the distance from q2 to P: r2 = Determine the magnitude of E1. | E1 | = Determine the magnitude of E2. | E2 | = Fill in the following table with all the appropriate components: Item x-component (N/C) y-component (N/C) E1 E2 Etot
In this exercise, you practice electric field lines. Make sure you represent both the magnitude and direction of the electric field adequately. Note that the number of lines into or out of charges is proportional to the charges. (a) Draw the electric field lines map for two charges +20C and 20C situated 5 cm from each other. (b) Draw the electric field lines map for two charges +20C and +20C situated 5 cm from each other. (c) Draw the electric field lines map for two charges +20C and 30C situated 5 cm from each other.
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