1. point charge equivalently show that the scalar potential and electric field of a moving with...
4. Uniformly moving point charge A point charge q is in uniform motion with velocity v = vzˆ, where v is a constant. At time t = 0 the charge is located at the origin. At a later time t 0 , at the field point x = x0, y = z = 0: (a) Find the scalar and vector potential. (b) What coordinate components does the electric field have? (c) What coordinate components does the magnetic field have? (d)...
State the condition uder which the electric field, E can be presented by the gradient of a scalar potential, V. Show that in electrostatic situations the remaining Maxwell equation can be written as 0 where p is the charge density. Prove that (") has a unique solution inside a closed surface, S, if V is specified on S Explain how the uniqueness of the soltion of ( is exploited in the method of images charge q is placed at (a,...
Q1. Electromagnetism State the condition uder which the electric field, E can be presented by the gradient of a scalar potential, V. Show that in electrostatic situations the remaining Maxwell equation can be written as 0 where p is the charge density. Prove that has a unique solution inside a closed surface, S, if V is specified on S Explain how the uniqueness of the soltion of ( is exploited in the method of images State the condition uder which...
4. We know from electrostatics that if we have a scalar electrostatic potential V, then there exists an electric field that satisfies: Of course, not all vector fields can be written as the gradient of a scalar function. (a) Show that the electric field given below is not the result of an electrostatic potential (b) Just because this electric field can't come from an electrostatic potential, it doesn't mean it can't exist - it just can't be created by static...
We know from electrostatics that if we have a scalar electrostatic potential V, then there exists an electric field that satisfies: Of course, not all vector fields can be written as the gradient of a scalar function. (a) Show that the electric field given below is not the result of an electrostatic potential. E(x, y, z) = ( 3.0m,2 ) ( yi-TJ (b) Just because this electric field can't come from an electrostatic potential, it doesn't mean it can't exist...
Electric Potential (V) has the following properties O a. The electric potential is a scalar quantity Ob. The potential can be calculated at a finite distance (r) from the charge (V=1/41€0) (q/r] Oc. An equipotential surface is a surface on which all points are at the same potential d. All of the above are true
. 1. The relations for the potential, electric and magnetic fields, and time averaged intensity are written in terms of spherical coordinates (cos θ pow ___ (_) sin[w(t-r/c)] V(r, θ, t) Scalar Potential: Hopow ATT -pop Α(r, θ,t) -sin[w(t-r/c)]2 Vector Potential: μοΡου-(-) cos[w(t-r/c)ja Electric Field: Ε--7V (3) 4π 7" Magnetic Field: B Vx A- 〈S) = (ww) sn-2- Intensity: Express these relationships in "coordinate-free" form, in which one is not committed to the spherical coordinate system. As an example, Po...
22-9 A point magnetic dipole moment m at rest produces a vector potential A given by 4T r3 If m moves with a constant velocity v (with v < c), show that there is also a scalar potential that appears to come from an electric dipole moment p (v X m)/c2 22-9 A point magnetic dipole moment m at rest produces a vector potential A given by 4T r3 If m moves with a constant velocity v (with v
1- For a uniform electric field, how is the electric potential energy similar to the gravitational potential energy in a uniform gravitational? 2-If a positive charge and a negative charge moving the same way in an electric field have the same change in electric potential energy? 3-For a positive charge moving in an electric field, which direction of motion will cause the electric potential energy to increase? Decrease? Stay constant? 4-How would the answers to the previous question be different...
Could you please answer both and show work? 1.13.10 With E the electric field and A the magnetic vector potential, show that [E + aA/ai] is irrotational and that therefore we may write 0t 1.13.11 The total force on a charge q moving with velocity v is Using the scalar and vector potentials, show that Exercise 1.13.10