Jump to a section

Physics - Oscillations

Practise 214 NEET NTA questions on Oscillations. Each question shows a quick preview so you can jump straight to the topic you want to revise.

Oscillations has been asked in 0 of the 38 years of NEET NTA papers analysed (1988–2025), with 214 questions in all. 100% of them were easy, 0% moderate and 0% tough. Most of its questions came from 2025, with 0 questions that year. In the last three years (2023–2025) it had 0 questions across 6 papers, about 0 per paper.

All of the chapter's questions come from a single topic, Uncategorized.

  1. 1A particle of mass m is located in a field such that its potential energy is given by U x = U 0 1 - cos a x where U 0 and a are positive con
  2. 2Two particles are executing simple harmonic motion of the same amplitude A and frequency ω along the x -axis. Their mean positions are separ
  3. 3An accurate pendulum clock is mounted on ground floor of a high building. How much time will it lose or gain in one day if it is transferred
  4. 4A pendulum with the time period of 1 s is losing energy due to damping. At a certain time, its energy is 45 J . If after completing 15 oscil
  5. 5The period of oscillation of a simple pendulum of length L suspended from the roof of a vehicle which moves without friction down an incline
  6. 6The displacement x (in meter) of a particle performing simple harmonic motion is related to time t (in second) as x = 0.05 c o s 4 π t + π 4
  7. 7Which of the following quantities are always positive in a simple harmonic motion?
  8. 8If a simple pendulum oscillates with an amplitude of 50 mm and time period of 2 s , then its maximum velocity is
  9. 9A point performs simple harmonic oscillation of period T and the equation of motion is given by x = a sin ω t + π 6 . After the elapse of wh
  10. 10A horizontal platform with an object placed on it is executing S H M in the vertical direction. The amplitude of oscillation is 2.5 c m . Wh
  11. 11If k s and k p respectively are effective spring constant in series and parallel combination of springs as shown in the figure, find k ⁡ s ⁡
  12. 12A point mass m is suspended at the end of a massless wire of length L and cross-section area A . If Y is Young's modulus for the wire, then
  13. 13A pendulum clock which ticks 60 times in one minute on earth is placed on the moon where the acceleration due to gravity is only one-sixth o
  14. 14A particle of mass m is acted upon by a force F = t 2 - k x . Initially, the particle is at rest at the origin. Then
  15. 15A system shown in the figure consists of a massless pulley, a spring of force constant k and a block of mass m . If the block is slightly di
  16. 16The x - t graph of a particle undergoing simple harmonic motion is shown below. The acceleration of the particle at t = 4 3 s is
  17. 17Which of the following quantity does NOT change due to damping of oscillations?
  18. 18A particle is moving in a circle with uniform speed. Its motion is
  19. 19A uniform spring has an unstretched length L and a force constant k . The spring is cut into two parts of unstretched lengths l 1 and l 2 su
  20. 20A simple pendulum of length L has mass M and it oscillates freely with amplitude A . At the extreme position, its potential energy is ( g =
  21. 21An object of mass 1kg executes simple harmonic oscillations along the x-axis with a frequency of 2 π H z . At the position x = 1 m , the obj
  22. 22A horizontal platform with an object placed on it is executing S H M in the vertical direction. The amplitude of oscillation is 2.5 c m . Wh
  23. 23The displacement of two identical particles executing SHM are represented by equations x 1 = 4 sin ⁡ 10 t + π 6 and x 2 = 5 cos ω t For what
  24. 24The bob of a simple pendulum is a spherical hollow ball, filled with water. A plugged hole near the bottom of the oscillating bob gets sudde
  25. 25Two springs are joined and attached to a mass of 16 kg. The system is then suspended vertically from a rigid support. The spring constant of
  26. 26A tunnel is made across the earth of radius R , passing through its centre. A ball is dropped from a height h in the tunnel, height h is ver
  27. 27In a simple pendulum, the breaking strength of the string is double the weight of the bob. The bob is released from rest when the string is
  28. 28The period of a simple pendulum inside a stationary lift is T . The lift accelerates upwards with an acceleration of g 3 . The time period o
  29. 29A girl swings on cradle in a sitting position. If she stands what happens to the time period of girl and cradle?
  30. 30The kinetic energy of a particle executing S.H.M. is 16 J when it is at its mean position. If the amplitude of oscillations is 25 cm , and t
  31. 31A pendulum has maximum kinetic energy K 1 . If its length is doubled keeping amplitude same then maximum kinetic energy becomes K 2 . Then r
  32. 32A particle executes simple harmonic motion with a frequency f . The frequency with which its kinetic energy oscillates is
  33. 33A disc of radius R and mass M is pivoted at the rim and is set for small oscillations. If simple pendulum has to have the same period as tha
  34. 34A pendulum of length 200 c m is horizontal, when its bob of mass 200 g m , is released. It has 90 % of initial energy when the bob reaches t
  35. 35A particle executes S H M along a straight line so that its period is 12 s . The time it takes in traversing a distance equal to half its am
  36. 36A simple pendulum is taken to 64 km above the earth's surface. It's time period will be
  37. 37A pendulum of length 1 m is released from θ = 60 ° . The rate of change of speed of the bob, at θ = 30 ° , is ( g = 10 m s - 2 )
  38. 38A particle moves such that its acceleration is given by a = - β x - 2 Here : β is a positive constant and x is the position from origin. Tim
  39. 39The displacement of a particle performing simple harmonic motion is given by, x = 8 sin ⁡ ω t + 6 cos ⁡ ω t , where distance is in cm and ti
  40. 40A pendulum has maximum kinetic energy K 1 . If its length is doubled keeping amplitude same then maximum kinetic energy becomes K 2 . Then t
  41. 41A particle moves according to the law, = r c o s π t 2. The distance covered by it during the time interval between t= 0 to t=3s is
  42. 42The x-t graph of a particle undergoing simple harmonic motion is shown below. The acceleration of the particle at t = 2 3 s is
  43. 43A particle executes a simple harmonic motion of time period T . Find the time taken by the particle to go directly from its mean position to
  44. 44The acceleration-displacement graph of a particle executing simple harmonic motion is shown in the figure. The frequency of oscillation is
  45. 45A pendulum has time period T for small oscillations. An obstacle P is situated below the point of suspension O at a distance 3 l 4 . The pen
  46. 46A simple pendulum 4 m long swings with an amplitude of 0.2 m . What is its acceleration at the ends of its path ? g = 10 m s - 2
  47. 47A particle starts oscillating simple harmonically from its equilibrium position with time period T . The ratio of KE and PE of the particle
  48. 48In an experiment, to find the loss of energy with respect to time in case of swinging simple pendulum, the graph between (amplitude) 2 and t
  49. 49Two point masses of 3.0 k g and 1.0 k g are attached to opposite ends of a horizontal spring whose spring constant is 300 N m - 1 as shown i
  50. 50To study the dissipations of the energy of a simple pendulum, student plots a graph between square root of time and amplitude. The graph wou

Frequently Asked Questions

1.How many questions are available for Oscillations?

This chapter includes 214 NEET NTA questions.

2.Are these questions only from NEET NTA, or from other exams too?

These are NEET NTA questions specifically for the Oscillations chapter. Questions from other exams like NEET or AIIMS are organised separately under their respective exam sections.

3.What is the difficulty level of Oscillations questions in NEET NTA?

Of the 214 questions analysed for this chapter, 100% are easy, 0% moderate and 0% tough. 2025 had the most, with 0 questions.

4.Which topics in Oscillations should I focus on?

All of this chapter's questions come from a single topic: Uncategorized.