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The left block in filgure collides inela...

The left block in filgure collides inelastically with the right block and sticks to it. Find the amplitude of the resulting simple harmonic motion.

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Assuming the collision to last for a small interval only we can apply the principal of conservation of momentum. The common velocity after collision is `v//2`. The kinetic energy is
`(1)/(2) (2 m) (y/(2))^(2) = (1)/(4) mv^(2)`
Tjhis is also the tortal energy of vibration as the spring is unsteteched at this momentum. If the amplitude is A, the total energy can also be written as `(1//2) kA^(2)`. Thus.
`(1)/(2) kA^(2) = (1)/(4) mv^(2)`
`A = sqrt((m)/(2 K)) v`
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CENGAGE PHYSICS ENGLISH-LINEAR AND ANGULAR SIMPLE HARMONIC MOTION-Exercise 4.2
  1. A block of mass m is suspended from the ceiling of a stationary standi...

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  2. The left block in filgure collides inelastically with the right block ...

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  3. A ball of amss m is connected to two rubber bands of length L, each un...

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  4. A mass M attached to a spring oscillation with a period of 2 s. If the...

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  5. A horizontal rod of mass m and length L is pivoted at one end The rod'...

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  6. A pendulum has a period T for small oscillations. An obstacle is place...

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  7. A horizontal spring block system of mass M executes simple harmonic mo...

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  8. A spring of spring constant 200 N//m has a block of mass 1 kg hanging ...

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  9. With the assumption of no slipping, determine the mass m of the block ...

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  10. A simple pendulum of length l swimings from a small angle theta . Its ...

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  11. A uniform rod of length l is pivoted distance x from the top of the ro...

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  12. The period of oscillation of a spring pendulum is T. If the spring is ...

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  13. A uniform stick of length l is hinged so as to rotated about a harmoni...

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  14. A ball is released in a smooth dimetrical tunnel of earth a. After ...

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  15. A body is in SHM with period T when oscillated from a freely suspended...

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  16. A point mass m is supended at the end of a massless wire of length Lan...

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  17. In the figure shown, the block A of mass m collides with the identical...

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  18. Figure shown a block P of mass m resting on a smooth floor at a distan...

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  19. Figure shown a block P of mass m resting on a smooth horizontal ground...

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  20. Figure shown a spring block system hanging in equilibrium. If a veloci...

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