[" The mass "M" shown in Fig."13.33" oscillates in simple "],[" harmonic motion with amplitude "A." The amplitude "],[" of the point "P" is "],[[k_(1),k_(2)],[" SOOO "," POOO "]]

The mass M shown in figure ocillates in simple harmonic motion with amplitude A. The amplitude of the point P is

The mass M shown in figure ocillates in simple harmonic motion with amplitude A. The amplitude of the point P is

The mass M shown in the figure oscillates in simple harmonic motion with amplitude A. The amplitude of the point P is

The mass M shown in the figure oscillates in simple harmnonic motion and amplitude A . The amplitude of the point P is

The mass (M) shown in the figure oscillates in simple harmonic motion with amplitude A. The amplitude of the point (P) . (##JMA_CHMO_C10_010_Q01##).

The figure shows a mass M attached to a series arrangement of two springs of spring constants k_(1) and k_(2) where k_(2) = 2k_(1) . If the mass M oscillates in simple harmonic motion with amplitude A, the amplitude of the point O is (alphaA)/(beta) . Find beta-alpha .

The mass M shown in the figure oscillates in simple harmonic motion with amplitude A. The maximum speed of junction P is V_0 . Assume springs are massless. Select the correct option/s

A simple harmonic motion is represented by F(t)=10sin(20t+0.5) . The amplitude of the S.H.M. is

A mass m oscillates with simple harmonic motion with frequency f= omega/(2pi) and amlitude A on a spring with constant K. therefore