a) Show that the given electrostatic potential in cylindrical coordinates, r/a sin (4) +37²/a sin (2) r ≤R, y = [0, a],
Posted: Mon May 23, 2022 12:15 pm
questions a to c step by step and if you are handwriting then please write the letters clearly. Thank you so much.
a) Show that the given electrostatic potential in cylindrical coordinates, r/a sin (4) +37²/a sin (2) r ≤R, y = [0, a], o(r, y) = otherwise. solves the Poisson equation Ap(r, y) = 0 inside of the segment and specify the boundary conditions of this boundary value problem. b) Compute the electric field E(F) inside of the segment. c) Calculate the surface charge density o(F) on the boundaries of the circle segment as well as the dipole moment D() of the dipolar layer.
a) Show that the given electrostatic potential in cylindrical coordinates, r/a sin (4) +37²/a sin (2) r ≤R, y = [0, a], o(r, y) = otherwise. solves the Poisson equation Ap(r, y) = 0 inside of the segment and specify the boundary conditions of this boundary value problem. b) Compute the electric field E(F) inside of the segment. c) Calculate the surface charge density o(F) on the boundaries of the circle segment as well as the dipole moment D() of the dipolar layer.
please solve those a) Show that the given electrostatic potential in cylindrical coordinates, r/a sin (4) +37²/a sin (2) r ≤R, y = [0, a], o(r, y) = otherwise. solves the Poisson equation Ap(r, y) = 0 inside of the segment and specify the boundary conditions of this boundary value problem. b) Compute the electric field E(F) inside of the segment. c) Calculate the surface charge density o(F) on the boundaries of the circle segment as well as the dipole moment D() of the dipolar layer.
a) Show that the given electrostatic potential in cylindrical coordinates, r/a sin (4) +37²/a sin (2) r ≤R, y = [0, a], o(r, y) = otherwise. solves the Poisson equation Ap(r, y) = 0 inside of the segment and specify the boundary conditions of this boundary value problem. b) Compute the electric field E(F) inside of the segment. c) Calculate the surface charge density o(F) on the boundaries of the circle segment as well as the dipole moment D() of the dipolar layer.