When a body is in $S.H.M.$,match the following:
List-$I$ List-$II$
$A$. Velocity is maximum $I$. Acceleration is maximum
$B$. $K.E.$ is $\left(\frac{3}{4}\right)^{\text{th}}$ of total energy $II$. At mean position
$C$. $P.E.$ is $\left(\frac{3}{4}\right)^{\text{th}}$ of total energy $III$. At half of the amplitude
$D$. Acceleration is maximum $IV$. At $\frac{\sqrt{3}}{2}$ times the amplitude

  • A
    $A-III, B-I, C-IV, D-II$
  • B
    $A-I, B-III, C-IV, D-II$
  • C
    $A-II, B-III, C-IV, D-I$
  • D
    $A-II, B-I, C-IV, D-III$

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$A$ horizontal platform with an object placed on it is executing $S.H.M.$ in the vertical direction. The amplitude of oscillation is $3.92 \times 10^{-3} \, m$. What must be the least period of these oscillations,so that the object is not detached from the platform (in $, s$)?

$A$ graph of the square of the velocity against the square of the acceleration of a given simple harmonic motion is

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As shown in the figures,a uniform rod $OO^{\prime}$ of length $l$ is hinged at the point $O$ and held in place vertically between two walls using two massless springs of same spring constant $K$. The springs are connected at the midpoint and at the top-end $(O^{\prime})$ of the rod,as shown in Fig. $1$,and the rod is made to oscillate by a small angular displacement. The frequency of oscillation of the rod is $f_1$. On the other hand,if both the springs are connected at the midpoint of the rod,as shown in Fig. $2$,and the rod is made to oscillate by a small angular displacement,then the frequency of oscillation is $f_2$. Ignoring gravity and assuming motion only in the plane of the diagram,the value of $\frac{f_1}{f_2}$ is:

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