Two point charges of magnitude +4.00 μC and +2.00 μC are placed at the opposite corners of a rectangle as shown in Figure 20-3.
What is the electric potential at point A (relative to infinity) due to the charges?
The answer turns out to be that add V from A to the +4micro charge and add V from A to the +2micro charge. I don't understand why you add them together. Since one direction is going +x and the other -y, why wouldn't you subtract?
Could someone explain it to me starting from the basics because everything about this question confuses me.
Two point charges of magnitude +4.00 μC and +2.00 μC are placed at the opposite corners of a rectangle as shown in Figure 20-3.
Three point charges of -2.00 μC, +4.00 μC, and +6.00 μC are placed along the x-axis as shown in the figure. What is the electrical potential at point P (relative to infinity) due to these charges?
3) Three point charges, -2.00 μC, +4.00 μC and + 6.00 μC. are located along the x-axis as shown in the figure. What is the electric potential (relative to infinity) at point P due to these charges? 4) The three point charges shown in the figure form an equilateral triangle with sides 4.9 cm long. What is the electric potential (relative to infinity) at the point indicated with the dot, which is equidistant from all three charges? Assume that the numbers...
Four point charges of magnitude 6.00 μC and of varying signs are placed at the corners of a square 2.00 m on each side, as shown in the figure. What is the electric potential (relative to infinity) at the center of this square due to these charges? What is the magnitude of the electric field due to these charges at the center of the square?
Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 30.0 cm and b = 68.0 cm. Find the minimum amount of work required by an external force to move the charge q2 to infinity. Let q1 = −2.90 µC, q2 = +2.70 µC, q3 = −5.10 µC. 9. Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 30.0 cm and b =...
Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 22.0 cm and b = 68.0 cm. Find the magnitude of the electric force exerted on the charge q1. Let q1 = −2.60 µC, q2 = +4.00 µC, q3 = −3.30 µC . 42
Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 22.0 cm and b = 68.0 cm. Find the magnitude of the electric force exerted on the charge q 1 . Let q 1 = −2.60 µC, q 2 = +4.00 µC, q 3 = −3.30 µC.
8 Three point like charges are placed at the corners of a rectangle as shown in the figure, a = 22.0 cm and b = 52.0 cm. Find the magnitude of the electric force exerted on the charge q3. Let qı = +2.70 μ C, q2 =-270 μC, q3 =-470 μC. 0.422 N g1O 42 43
7. Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 30.0 cm and b = 66.0 cm. Find the minimum amount of work required by an external force to move the charge q to infinity. Let q = −2.30 µC, q = −3.20 µC, q = +5.10 µC. in J 8. Four point-like charges are placed as shown in the figure, three of them are at the corners and one at...
8. Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 32.0 cm and b = 60.0 cm. Find the magnitude of the electric force exerted on the charge q3. Let q =-2.50 μ C. q2 =-2.50 μC, q3 =-3.40 μ C x 0684 N 0.684 410 42
Four * 1 μC point charges are at the corners of a square of side 3 m. Find the potential at the center of the square (relative to zero potential at infinity) for each of the following conditions. (a) All the charges are positive kV (b) Three of the charges are positive and one is negative kV (c) Two are positive and two are negative kV eBook Submit Answer Save Progress Practice Another Version +3 points Tipler8 23 P028 My...