We observe two point charges in the yz-plane: one of them has charge 2q and is located in (x,y,z)-(0,0,a) and the other...
Problem 2 - Point charge and plane (20 pts) A point charge q (q>0) is located a distance d above an infinite conducting plane lying in the x-y plane. The plane is connected to the ground (Fig.1), so that the electric potential V at any point on the plane satisfies V=0. Calculating the electric potential generated by the point charge-grounded plane combination at any point P is more complicated than it looks because the conducting plane pulls some electric charge...
Consider an electric dipole oriented in the -x direction, p=-qoi, and located at the point (0, 0, zo). A grounded conducting slab occupies the region everywhere below the x-y plane. a. What is the boundary condition at the surface of the conductor that must be satisfied? b. Describe the image charge(s) you would introduce in order to find the electric field in the region above the conductor. Now, using the method of images and assuming a point-like electric dipole, determine...
Q 7. (5 pts) Consider two semi-infinite grounded conducting planes (one is in the x-z plane stretching from x = 0 to infinity, the other is in the y-z plane stretching from y = 0 to infinity) and a point charge +Q located at (a, b), as shown to the right. Suppose we want to use the method of images to solve for the charge distribution on the grounded planes. (Note: do not perform this calculation! Just provide responses for...
Two charges are located in the x–y plane. If q1 = -2.90 nC and is located at x = 0.00 m, y = 1.000 m and the second charge has magnitude of q2 = 3.40 nC and is located at x = 1.40 m, y = 0.600 m, calculate the x and y components, Ex and Ey, of the electric field, , in component form at the origin, (0,0). The Coulomb Force constant is 1/(4π ε0) = 8.99 × 109...
Three dipoles are arranged in the x-y plane. The positive and negative charges of dipole 1 is located at (d,d,0) and (-d,-d,0), respectively. For dipole 2, the charges are located at (d,0,0) and (-d,0,0). For dipole 3, they are located at (0,d,0) and (0,-d,0). Assume for all charges that Iq-2 nC and d = 3.0 mm 1. Find an expression for the total dipole moment vector of the system, expressed in rectangular coordinates Find an equation that represents the electric...
Three charges are located in the x-y plane. A charge of +1.2*10^-8 C located at the point (0,0), another charge of -1.2*10^-8 C located at the point (1 cm,1 cm) and the third charge of +3*10^-8 C located at (1 cm,0). Determine the total electric flux through a Gaussian sphere centered at the origin with a radius of 10.0 cm. Please explain how the answer is 3388.2 (Nm^2/C)
Two point charges are located as shown below. One has charge +40 and located at (x, y)-(-a, 0). The other has charge-Q and located at (ta, 0). a) b) c) Find the potential Vat (x, y) (0, 0). (Assume V- 0 at infinitely-far-way places.) Find the potential V at point P-(0, +a). Find out the location (x, 0) where the potential V becomes zero in the x-axis. There is such a point other than infinitely-far-way places d) What is the...
Two charges are located in the x-y plane. If Q1 = -4.25 nC and is located at (x = 0.00 m, y = 1.200 m), and the second charge has magnitude of a = 4.00 nC and is located at (x = 1.00 m, y=0.550 m), calculate the x and y components, E, and Ey, of the electric field, E, in component form at the origin, (0,0). The Coulomb force constant is 1/(4x) = 8.99 x 10ºN.m/C? N/ CE,=
Two charges are located in the x–y plane. If q1 = -2.30 nC and is located at x = 0.00 m, y = 0.720 m and the second charge has magnitude of q2 = 4.00 nC and is located at x = 1.20 m, y = 0.650 m, calculate the x and y components, Ex and Ey, of the electric field, E, in component form at the origin, (0,0). The Coulomb Force constant is 1/(4π ε0) = 8.99 × 109...
Two charges are located in the x–y plane. If q1 = -3.20 nC and is located at x = 0.00 m, y = 0.600 m and the second charge has magnitude of q2 = 4.00 nC and is located at x = 1.40 m, y = 0.800 m, calculate the x and y components, Ex and Ey, of the electric field, , in component form at the origin, (0,0). The Coulomb Force constant is 1/(4π ε0) = 8.99 × 109...