In the figure above, q1 = 3.00q and q2 = -q, where q = 0.01 µC, d1 = 7.13 cm, d2 = 10.70 cm, θ1 = 51.0 ° and θ2 = 63.0 °. How much work is done by the electric field as a charge Q = +4q is brought from infinity along the path to the point shown in the figure?
at infinity, Potential Vi = 0
at the given location,
Vf = k q1 / d1 + k q2 / d2
= ( 9 x 10^9)[ (3 x 0.01 x 10^-6)/(0.0713) + (-0.01 x 10^-6)/0.1070 ]
= 2946 Volt
Work done by electric field = - delta(PE)
= -q (VF - Vi )
= - 4 x 0.01 x 10^-6 x 2946
= - 117.8 x 10^-6 J
Three point charges lie along a
straight line as shown in the figure below, where q1 = 5.94 µC, q2
= 1.41 µC, and q3 = -2.2 µC. The separation distances are d1 = 3.00
cm and d2 = 2.00 cm. Calculate the magnitude and direction of the
net electric force on each of the charges.
In Figure P23.15 (q1 = -3 µC, q2 = 6.00 µC), determine the point (other than infinity) at which the electric field is zero. m?
4.) In the figure below (q1 =-2.8 µC,
q2 =6.80 µC), determine the point (otherthan
infinity) at which the electric field is zero.
m
2
between the two charges to theright of
q2 to theleft of
q1
Electric charges q1 = q2 = +6 µC are at the bottom vertices of an equilateral triangle having 40 cm side. Calculate the magnitude and direction of the electric fields due to q1 and q2 at the top vertex of the triangle. Calculate the magnitude and direction of the electric force on charge q = -5 µC placed on the top vertex of the triangle.
Find the x and y components of
the electric field produced by q1 and q2 in the figure shown below
at point A and point B. (Take q1 = 1.81 µC and q2 = −1.15 µC.)
Find the x and y components of the electric field produced by 91 and q2 in the figure shown below at point A and point B. (Take q1-1.81 με and q2 =-1.15 uc.) 42 Point A Ex- Ey Point B Ex=
Three point charges lie along a straight line as shown in the figure below, where q1 6.36 pC 92 Calculate the magnitude and direction of the net electric force on each of the charges. 1.37 pC, and q3 -1.9 μ.The separation distances are d1 = 3.00 cm and d2 2.00 cm. 42 4s d2 (a) 91 magnitude direction | Select-▼ Your response differs from the correct answer by more than 10%. Double check your calculations. N (b) 92 magnitude direction...
Three point charges lie along a straight line as shown in the figure below, where q1 = 5.94 μC, q2 = 1.44 μC, and q3 =-1.82 μC. The separation distances are d1 = 3.00 cm and d2 = 2.00 cm. Calculate the magnitude and direction of the net electric force on each of the charges.(a) q1 magnitude direction(b) q2 magnitude direction(c) q3 magnitude direction
Work to bring a charge from infinity Due in 5 hours, 25 minutes In the figure above, 91 - 1.50q and 92 = -9, where q = 0.27 pc, di = 3.16 cm, d2 = 4.74 cm, 81 - 46.0 and 2 - 58.0. How much work is done by the electric field as a charge Q = +49 is brought from Infinity along the path to the point shown in the figure? Submit Answer Tries 0/10 Send Feedback This...
A 4.3 µC (q1) and a -2.5 µC
(q2) charge are placed 1.6 cm apart. At what
points along the line joining them do the following things occur?
(List all answers as positive numbers.)
(a) the electric field is zero
------------
(b) the potential is zero
1. ---------------
2.---------------
In the figure particles with charges q1 =
+4e and q2 = -14e are fixed
in place with a separation of d = 21.5 cm. With V
= 0 at infinity, what are the finite (a) positive
and (b) negative values of x at which the
net electric potential on the x axis is zero?
In the figure particles with charges 91 = +4e and q2 = -14e are fixed in place with a separation of d = 21.5 cm....