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The equation of motion of particle is gi...

The equation of motion of particle is given by `(dp)/(dt) +m omega^(2) y =0` where `P` is momentum and `y` is its position. Then the particle

A

moves along a circle

B

moves along a parabola

C

executes simple harmonic motion

D

falls freely under gravity

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The correct Answer is:
C
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NARAYNA-OSCILLATIONS-C. U . Q
  1. A particle moves on the X-axis according to the equation x = x(0) sin^...

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  2. If a particle is executing SHM, with an amplitude A, the distance move...

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  3. The equation of motion of particle is given by (dp)/(dt) +m omega^(2) ...

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  4. Position of a particle varies as y = cos^(2) omega t - sin^(2) omega t...

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  5. The motion of a particle in SHM of

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  6. The displacement (from intial position) of a particle executing SHM wi...

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  7. A particle moves on y-axis according to the equation y = A +B sin omeg...

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  8. A system executing SHM must possesses

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  9. The angular velocities of three bodies in SHM are omega(1), omega(2), ...

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  10. For a particle in SHM the amplitude and maximum velocity are A and V r...

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  11. The amplitude of a particle performing SHM is 'a'. The displacement at...

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  12. A SHM has amplitude A and time period T. The maximum velocity will be

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  13. A particle performs harmonic oscillations along a straight line with a...

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  14. A particle perform SHM with period T and amplitude A. the mean velocit...

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  15. A particle executing S.H.M. completes a distance (taking friction as n...

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  16. The maximum acceleration of a body moving is SHM is a(0) and maximum v...

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  17. A particle executing SHM. The phase difference between acceleration an...

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  18. The phase of a particle in S.H.M. is pi//2, then :

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  19. v36.3

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  20. A body executing SHM has a total energy E. When its kinetic energy is ...

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