Each Q shown is 60 µC. What work is required of some agent to move a charge q = 5 µC fror point A to point B without accelerating q? %3D

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y
(0, +4.0 m)
Q
(-3.0 m, 0)
(3.0 m. 0)
(0,-8.0 m)
B
Each Q shown is 60 µC. What work is required of some agent to move a charge q = 5 µC from
point A to point B without accelerating q?
J
Transcribed Image Text:y (0, +4.0 m) Q (-3.0 m, 0) (3.0 m. 0) (0,-8.0 m) B Each Q shown is 60 µC. What work is required of some agent to move a charge q = 5 µC from point A to point B without accelerating q? J
a
a
+2Q
Three colinear point charges are positioned as shown. If Q = 21 nC, a = 3 cm, and b = 5 cm,
what is the electric potential at point P, with the convention that the potential is zero at infinity?
%3D
kV
Transcribed Image Text:a a +2Q Three colinear point charges are positioned as shown. If Q = 21 nC, a = 3 cm, and b = 5 cm, what is the electric potential at point P, with the convention that the potential is zero at infinity? %3D kV
Expert Solution
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Since we answer up to one question, we will answer the first question only. Please resubmit the question and specify the other question you would like to get answered. 

Given: The value of the two charge Q is 60 μC or 60×10-6 C

To determine: The work required to move a charge q of 5 μC or 5×10-6 C from point A to B. 

The figure shows the distance between the charges to point A and B 

Advanced Physics homework question answer, step 1, image 1

The distance between A and C is calculated using Pythagoras rule, 

AC=3 m2+4 m2AC=5 m

Similarly value of AD is also 5 m. 

The distance C and B is 

CB=3 m2+6 m2CB=6.71 m

Similarly the distance between DB is 6.71 m. 

The potential is given as 

V=kQr

where V is the potential, k is the constant, value of k is 9×109 N.m2/C2 and r is the distance. 

 

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