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Consider one dimensional motion of a par...

Consider one dimensional motion of a particle of mass m. If has potential every `U=a+bx^(2)`, where a and b are positive constants. At origin `(x=0` it has initial velocity `V_(0)`. It performs simple harmonic oscillations. The frequency of the simple harmonic motion depends on

A

`pisqrt((a)/(2b))`

B

`2sqrt((a)/(m))`

C

`sqrt((2a)/(m))`

D

`sqrt((a)/(2m))`

Text Solution

Verified by Experts

The correct Answer is:
B

`U(x) = ax^(2) + bx^(4)`
`f = - (delU)/(delx) = -2ax - 4bx^(3) ~~ -2ax` for small `x`
So `momega^(2) 2a rArr omega = sqrt((2a)/(m))`
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