Physics, asked by Csilla, 3 days ago

Q] Consider the situation shown in the figure. A spring of spring constant 400Nm^-1 is attached at one end to a wedge fixed rigidly with the horizontal part. A 40g mass is released from rest while situated at a height 5cm the curved track. The minimum deformation in the spring is nearly equal to [Take, g=10ms^-2] [AIIMS 2015]​

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Answered by amansharma264
7

EXPLANATION.

A spring of spring constant = 400nm⁻¹.

A 40g mass is released from rest while situated at a height 5 cm the curve track.

Minimum deformation in the spring is nearly equal to.

As we know that,

Formula of :

Spring constant = 1/2(kx²).

Potential Energy = mgh.

We can write equation as,

Loss in potential energy = Gain in elastic potential energy.

⇒ mgh = 1/2(kx²).

⇒ 2mgh = kx².

⇒ 2mgh/k = x².

⇒ x = √(2mgh/k).

⇒ x = √(2 x (0.04) x 10 x 5)/400.

⇒ x = √(100 x 0.04)/400.

⇒ x = √(4/400).

⇒ x = √(1/10).

⇒ x = 10 cm ≈ 9.8m.

Answered by HarshitJaiswal2534
1

Explanation:

EXPLANATION.

A spring of spring constant = 400nm⁻¹.

A 40g mass is released from rest while situated at a height 5 cm the curve track.

Minimum deformation in the spring is nearly equal to.

As we know that,

Formula of :

Spring constant = 1/2(kx²).

Potential Energy = mgh.

We can write equation as,

Loss in potential energy = Gain in elastic potential energy.

⇒ mgh = 1/2(kx²).

⇒ 2mgh = kx².

⇒ 2mgh/k = x².

⇒ x = √(2mgh/k).

⇒ x = √(2 x (0.04) x 10 x 5)/400.

⇒ x = √(100 x 0.04)/400.

⇒ x = √(4/400).

⇒ x = √(1/10).

⇒ x = 10 cm ≈ 9.8m.

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