Consider a point charge q located at the point az (see Fig. 1). The point charge...
please show steps and final answer A point charge Q [C] is located at a point in space. The charge is surrounded by two spherical layers of materials as shown below. Both-materials have permitivity's different than free space (82 > ε), as indicated: (a) Calculate the electric flux density and field intensity everywhere in space. (b) Calculate the potential everywhere in space. (c) Plot the electric field intensity and electric flux density everywhere in space. (d) Calculate the energy stored...
A positive point charge Q is located in free-space at the center of a spherical conducting shell The conducting shell consists of two concentric spheres, with inner radius a and an outer radius b (b> a), shaded region as shown in figure below. a) (15 points) Determine electric flux density everywhere. b) (5 points) Determine electric potential at the inner radius of the conducting shell c) (5 points) What is the total charge at the inner surface at r=a? justify...
a) Consider a point charge q at the center of an imaginary box with side lengths 2a. Explicitly calculate the flux of the electric field through the box and show that it agrees with Gauss's law. b) Suppose the electric field of a point charge q is proportional to 1/r3 instead of 1/r2. Does Gauss's law hold in this case? Hint: compute the electric flux through a sphere centered at the location of q. Is your answer dependent on your...
3. a) Consider a point charge q at the center of an imaginary box with side lengths 2a. Explicitly calculate the flux of the electric field through the box and show that it agrees with Gauss's law b) Suppose the electric field of a point charge q is proportional to 1/r3 instead of 1/r2. Does Gauss's law hold in this case? Hint: compute the electric fluz through a sphere centered at the location of q. Is your answer dependent on...
3. a) Consider a point charge q at the center of an imaginary box with side lengths 2a. Explicitly calculate the flux of the electric field through the box and show that it agrees with Gauss's law. b) Suppose the electric field of a point charge q is proportional to 1/r3 instead of 1/2. Does Gauss's law hold in this case? Hint: compute the electric flur through a sphere centered at the location of q. Is your answer dependent on...
what is the total electric flux due to these two point charges through a spherical surface centered at the origin and with radius r 1 = 0.610 m ? Constants A point charge q.-3.95 nC is located on the x-axis at z 2.25 m, and a second point charge g2--5.50 C is on the y-axis at y 1.25 m Submit Request Answer ▼ Part B What is the total electric flux due to these two point charges through a spherical...
A point charge q1 = 3.55 nC is located on the x-axis at x = 2.30 m, and a second point charge q2 = -6.95 nC is on the y-axis at y = 1.00 m.Part AWhat is the total electric flux due to these two point charges through a spherical surface centered at the origin and with radius r1 = 0.585 m? Part B What is the total electric flux due to these two point charges through a spherical surface origin and...
3. (8 points) Consider a conducting sphere with total electric charge +Q with radius Rị centered at p= 0 (spherical coordinates). The surface charge at r = R1 is spread uniformly on this spherical surface. There is also an outer conducting shell of radius r = R2, centered at r = 0 and with total electric charge - Q also spread uniformly on the surface. This arrangement of separated positive and negative charge forms a capacitor. We will assume that...
A point charge -q is located at the origin. The point charge is surrounded by a ring with uniform line charge density λ and radius a. The charged ring sits in the x-y plane and is centered on the origin. a) Calculate the electric potential along the z-axis using a reference point at ∞ using Coulomb’s law for V. (i.e. do not find the electric field first.) b) Use E = −∇V to calculate the electric field along the z-axis....
A single point charge q is located at the center of both an imaginary cube and an imaginary sphere. How docs the electric flux through the surface of the cube compare to that through the surface of the sphere? The net electric flux through the surface of the cube Select the net electric flux through the surface of the sphere. Fxplain your answer