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For a particle performing SHM...

For a particle performing `SHM`

A

The kinetic energy is never equal to the potential energy

B

the kinetic energy is always equal to the potential energy

C

The average kinetic in one time period is equal to the average potential in this period

D

The avarage kinetic energy in any time interval is equal to average potential energy in that interval.

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To solve the problem regarding a particle performing Simple Harmonic Motion (SHM) and to identify the correct statements from the given options, we can follow these steps: ### Step-by-Step Solution: 1. **Understanding the Basics of SHM**: - In SHM, a particle oscillates back and forth around an equilibrium position. The motion can be described in terms of kinetic energy (KE) and potential energy (PE). 2. **Analyzing the Statements**: - We need to evaluate each statement provided in the question. 3. **Statement A**: "The kinetic energy is never equal to the potential energy." - This statement is **incorrect**. In SHM, there are instances where the kinetic energy can equal the potential energy, particularly when the particle is at the midpoint of its motion. 4. **Statement B**: "The kinetic energy is always equal to the potential energy." - This statement is also **incorrect**. While kinetic energy can equal potential energy at certain points, it does not hold true for all positions in SHM. 5. **Statement C**: "The average kinetic energy in one period is equal to the average potential energy in that period." - This statement is **correct**. Over one complete cycle of SHM, the average kinetic energy is equal to the average potential energy due to the conservation of mechanical energy. 6. **Statement D**: "The average kinetic energy in any interval of time is equal to the average potential energy in that interval." - This statement is **incorrect**. The averages may not be equal in arbitrary intervals of time, as they depend on the specific positions and velocities of the particle during that interval. 7. **Conclusion**: - After evaluating all statements, the only correct statement is **Statement C**. ### Final Answer: The correct option is **C**. ---
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RESONANCE ENGLISH-SIMPLE HARMONIC MOTION -Exercise- 1, PART - II
  1. KE and PE of a particle executing SHM with amplitude A will be equal ...

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  2. A particle of mass 0.1 kg is executing SHM of amplitude 0.1 m . When t...

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  3. For a particle performing SHM

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  4. Acceleration versus time graph of a body in SHM is given by a curve sh...

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  5. A particle performs SHM of amplitude A along a straight line. When it ...

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  6. Two springs, of spring constants k(1) and K(2), have equal highest vel...

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  7. A toy car of mass m is having two similar rubber ribbons attached to i...

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  8. A mass of 1 kg attached to the bottom of a spring has a certain freque...

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  9. A ball of mass 2kg hanging from a spring oscillates with a time period...

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  10. A smooth inclined plane having angle of inclination 30^(@) with horizo...

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  11. A particle executes simple harmonic motion under the restoring force p...

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  12. Four massless springs whose force constants are 2k, 2k, k and 2k respe...

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  13. The total mechanical energy of a spring mass system in simple harmonic...

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  14. Two apdulums begin to swing simultaneosuly. The first pendulum makes 9...

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  15. Two pendulums at rest swinging together. Their lengths are respectivel...

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  16. A man measures time period of a pendulum (T) in stationary lift. If th...

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  17. A simple pendulum has some time period T. What will be the percentage ...

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  18. If a simple pendulum having a string of with length L and a bob of mas...

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  19. A 25kg uniform solid with a 20cm radius respectively by a verticle wir...

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  20. A metre stick swinging about its one end oscillates with frequency f(0...

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