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A system of two identical rods (L-shaped) of mass m and length l are resting on a peg P as shown in the figure. It the system is displaced in its plane by a small angle θ, find the period of oscillations

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Important Questions on Simple Harmonic Motion

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JEE Main/Advance
IMPORTANT
The distance of point of a compound pendulum from its centre of gravity is l, the time period of oscillation relative to this point is T. If g=π2, the relation between l and T will be,
EASY
JEE Main/Advance
IMPORTANT
A man of mass 60kg standing on a plateform executing S.H.M. in the vertical plane. The displacement from the mean position varies as y=0.5 sin2π ft. The minimum value of f, for which the man will feel weightlessness at the highest point is: (y is in metres)
MEDIUM
JEE Main/Advance
IMPORTANT
A heavy brass-sphere is hung from a spring and it executes vertical vibrations with period T. The ball is now immersed in nonviscous liquid with a density one-tenth that of brass. When set into vertical vibrations with the sphere remaining inside the liquid all the time, the period will be:
HARD
JEE Main/Advance
IMPORTANT
A particle of mass m moves in a one-dimensional potential energy Ux=-ax2+bx4, where a and b are positive constants. The angular frequency of small oscillations about the minima of the potential energy is equal to
MEDIUM
JEE Main/Advance
IMPORTANT
A particle performs SHM of amplitude A along a straight line. When it is at a distance 32A from the mean position, its kinetic energy gets increased by an amount 12mω2A2 due to an impulsive force. Then its new amplitude becomes:
EASY
JEE Main/Advance
IMPORTANT
A particle executes SHM on a line 8cm long. Its K.E. and P.E. will be equal when its distance from the mean position is:
EASY
JEE Main/Advance
IMPORTANT

The total energy of a vibrating particle in S.H.M. is E. If its amplitude and time period are doubled, its total energy will be:  

MEDIUM
JEE Main/Advance
IMPORTANT
The distance between the point of suspension and the centre of gravity of a compound pendulum is l and the radius of gyration about the horizontal axis through the centre of gravity is k. Then, its time period will be,