[" The electric field of a plane polarized "],[" electromagnetic wave in free space at time "],[t=0" is given by an expression "],[vec E(x,y)=10hat j cos[(6x+8z)]],[" The magnetic field "vec B(x,z,t)" is given by ":]

The electric field of a plane polarized electromagnetic wave in free space at time t = 0 is given by an expression vec(E) (x,y) = 10 hat(j) cos [(6 x + 8z)] The magnetic field vec(B) (x, z, t) is given by: (c is the velocity of light)

The electric field of a plane polarized electromagnetic wave in free space at time t = 0 is given by an expression vec(E) (x,y) = 10 hat(j) cos [(6 x + 8z)] The magnetic field vec(B) (x, z, t) is given by: (c is the velocity of light)

The electric field of an electromagnetic wave in free spaces is given by barE=5 cos(10^5t+kx)j , where t in second and x in meter then

The electric field of a plane electromagnetic wave is given by vec(E)=E_0haticos(kz)cos(omegat) The corresponding magnetic field vec(B) is then given by :

If the electric field component of an electromagnetic wave moving in positive x direction is given by vec E = 6 cos[1.2x - 3.6 * 10^8 t] hat j N/C then the equation of magnetic field of the electromagnetic wave will be

If the electric field component of an electromagnetic wave moving in positive x direction is given by vec E = 6 cos[1.2x - 3.6 * 10^8 t] hat j N/C then the equation of magnetic field of the electromagnetic wave will be

The electric field of a plane electromagnetic wave in vacuum is represented by E_x = 0, E_y = 0.5 cos [2pi xx 10^8( t —x/c)] and vec E_z = 0 the wavelength of the wave, is

The electric field of an electromagnetic wave in free space is represented as vec E=E_(0)cos(omega t-kz) hat i . The corresponding magnetic induction vector will be:

The electric field associted with an electromagnetic wave in vacuum is given by vecE=hati 40 cos(kz=6xx10^(8)t) , when E , z and t are in volt//m, metre and second respectively