[" Which two of the given transverse wave will give stationary waves "],[" when get superimposed "],[z_(1)=a cos(kx-omega t)....(a)],[z_(2)=a cos(kx+omega t)....(b)],[z_(3)=a cos(kv-omega t)......(c)]

Which two of the given transverse waves will give stationary waves when get superimposed z_(1) =a cos (kx- omega t) " " .....(A) z_(2) =a cos (kx+ omega t) " " .....(B) z_(3) =a cos (kx- omega t) " " .....(C)

Which two of the given transverse waves will give stationary wave when get superimposed? z_(1) = a cos (kx-omegat) " "(A) z_(2) = a cos (kx +omegat) " "(B) z_(3) = a cos (ky - omegat) " "(C )

Which two of the given transverse waves will give stationary waves then get superimposed? z_1=acos(kx-omegat) .(A) z_2=acos(kx-omegat) .(B) z_3=acos(ky-omegat) .(C )

A stationary wave is set up in a string fixed at both ends.Which of the following cannot represent stationary wave equation (a) "y=A sin kx cos omega t , (b) y=A cos kx cos omega t , (c) y=A sin kx sin omega t , (d) y=A cos kx sin omega t .

Wave equations of two particles are given by y_(1)=a sin (omega t -kx), y_(2)=a sin (kx + omega t) , then

The stationary wave y = 2a sinkx cos omega t in a stretched string is the result of superposition of y_(1)=a sin(kx-omegat) and

The stationary wave y = 2a sinkx cos omega t in a stretched string is the result of superposition of y_(1)=a sin(kx-omegat) and

when two displacements represented by y_(1) = a sin(omega t) and y_(2) = b cos (omega t) are superimposed the motion is