An EM wave is propagating along x-axis such that `vec(E) = 800 sin (kx - wt) hat(j)`. If an electron is projected with velocity `3 × 10^7 m/s`. Along y-axis then the maximum magnetic force experienced by electron is

An electron travelling with a velocity vecV = 10^7 hati m//s enter a magnetic field of induction vecB = vec2J The force on electron is

A long straight wire is kept along x-axis. It carries a current i in the positive x-direction. A proton and an electron are placed at (0, a,0) and (0, -a, 0) respecitively. The proton is imparted an initial velocity v along +z axis and the electron is imparted an initial velocity v along +x-axis. The magnetic forces experienced by the two particles at the instant are

A transverse wave propagating along x-axis is represented as y(x,t)= 0.8sin(pi/4-4pit-pi/2x) where x is in meter and t is in second. The velocity of wave is

Electric field of an em wave is E = 200 sin(w(t - x/c))V/m . An electron is moving with speed 3x10^7 m/s . Find magnetic force on an electron.

An electron travelloing with a velocity bar(V)=10^(7) hat(i)m//s enter a magnetic field of induction bar(B)=bar(2j) . The force on electron is

For e.m. wave propagating along x-axis, E_(max)= 30 V//m . What is the maximum value of magnetic field?

An em wave is propagating in a medium whith a velocity vecv=vhati . The instantaneous oscillating electric field of this of em wave is along +y axis. Then the direction of oscillating magnetic field of the em wave will be along

An electron is constrained to move along the y- axis with a speed of 0.1 c (c is the speed of light) in the presence of electromagnetic wave, whose electric field is vec E = 30hat j sin (1.5 xx 10^7t - 5 xx 10^2x) V//m . The maximum magnetic force experienced by the electron will be : (given c = 3 xx 10^8 ms^(-1) and electron charge = 1.6 xx 10^(-19)C )