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(a)

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The equation of motion is \"\".

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Velocity is the derivative of position: \"\".

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\"\".

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Differentiate on each side with respect to \"\".

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\"\"

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Acceleration is the derivative of Velocity.

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\"\".

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\"\"

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Differentiate on each side with respect to \"\".

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\"\"

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(b) Graph:

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Graph the velocity and acceleration functions.

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\"\" 

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(c)

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At the equilibrium position, \"\".

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\"\"

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Substitute \"\" in the above expression.

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\"\"

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Therefore at \"\" sec , the mass pass through the equilibrium position.

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(d)

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After the equilibrium position mass travels maximum distance.

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That is at the extreme travel distance the velocity is equals to zero.

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Therefore we have,\"\".

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\"\"

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From the Pythagorean theorem:

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\"\" and  \"\".

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Substitute above values in \"\" to find maximum distance.

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\"\"

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Distance traveled by the mass after equilibrium position is 3.6 cm.

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From the graph, it is clear that speed of the mass is maximum when \"\".

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\"\"

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Speed of the mass is greatest when \"\"

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(a) \"\" and \"\"

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(b)

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\"\"

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(c)

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At \"\" sec , the mass pass through the equilibrium position.

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(d)

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Distance traveled by the mass after equilibrium position is 3.6 cm.

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(e)

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Speed of the mass is greatest when \"\"