A mass m =55 g is suspended, hanging vertically from a light spring with constant k =32 N.m −1 . In mechanical equilibrium, the height of the mass above the bench is H = 25 \text{ mm}H=25 mm. It is then moved downwards to height h =17 mm and released from rest. What is the magnitude of its initial acceleration? (Hint: There are at least two steps in this problem. Think carefully, don't guess, and make sure that you can justify your answer. This is really one for drawing a diagram and writing the whole solution, carefully.) kImin[mm]k[mm]A slider of mass m is on a horizontal air track, so we'll ignore friction. It is attached to a horizontal light springwith constant k. The spring is stretched horizontally by initial deformation x (middle picture) and held stationary.When it is released from the hand (bottom picture), what is the magnitude of its initial acceleration?Combine your answer from the following elements: m, k, x, g, * and / and/or a number, if needed. If you need tomultiply variables in your expression for the initial acceleration please use an * to indicate "multiply by". Do notuse parenthesesPreview will appear here...Enter math expression here

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A mass m =55 g is suspended, hanging vertically from a light spring with constant k =32 N.m −1 . In mechanical equilibrium, the height of the mass above the bench is H = 25 \text{ mm}H=25 mm. It is then moved downwards to height h =17 mm and released from rest. What is the magnitude of its initial acceleration? (Hint: There are at least two steps in this problem. Think carefully, don't guess, and make sure that you can justify

A mass m =55 g is suspended, hanging vertically from a light spring with constant k =32 N.m −1 . In mechanical equilibrium, the height of the mass above the bench is H = 25 \text{ mm}H=25 mm. It is then moved downwards to height h =17 mm and released from rest. What is the magnitude of its initial acceleration? (Hint: There are at least two steps in this problem. Think carefully, don't guess, and make sure that you can justify

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