- A$\lambda = \frac{{\pi {Y_0}}}{4}$
- ✓$\lambda = \frac{{\pi {Y_0}}}{2}$
- C$\lambda = \pi {Y_0}$
- D$\lambda = 2\pi {Y_0}$
We get $a = Y_0, \, \omega = 2\ pi f, k = \frac{{2\pi }}{\lambda }$.
Hence maximum particle velocity ${({v_{\max }})_{particle}} = a\omega = {Y_0} \times 2\pi f$
and wave velocity ${(v)_{wave}} = \frac{\omega }{k} = \frac{{2\pi f}}{{2\pi /\lambda }} = f\lambda $
$\because \,\,\,{({v_{\max }})_{Particle}} = 4{v_{Wave}}$==> ${Y_0} \times 2\pi f = 4f\lambda $ ==> $\lambda = \frac{{\pi {Y_0}}}{2}$.
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Statement $I:$ Rotation of the earth shows effect on the value of acceleration due to gravity $(g)$.
Statement $II:$ The effect of rotation of the earth on the value of $g$ at the equator is minimum and that at the pole is maximum.
In the light of the above statements, choose the correct answer from the options given below.
