The correct answer is option C: Potential energy maximum at both the extreme positions. The potential energy in a spring is maximized when it is either fully stretched or fully compressed, which are the extreme positions. At the equilibrium position, potential energy is zero since displacement is zero.
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In the context of a stretched spring that is released and undergoing oscillations, the potential energy of the system is determined by the position of the spring relative to its equilibrium position.
When a spring is oscillating, the energy in the system is constantly transforming between potential energy and kinetic energy:
Potential Energy (PE) : This is the energy stored in the spring when it is either compressed or stretched from its equilibrium position. It is given by the formula:
PE = 2 1 k x 2
where k is the spring constant, and x is the displacement from the equilibrium position.
Kinetic Energy (KE) : This is the energy of motion. It is highest when the spring passes through its equilibrium position because that's when its speed is greatest.
Energy Transformation : As the spring moves from one extreme end to another, its potential energy is at its maximum at the extremes of the oscillation (either completely stretched or compressed) because the displacement x is greatest there.
Therefore, the correct statement regarding the potential energy of an oscillating spring is:
(C) Potential energy maximum at both the extreme positions
At these extreme positions, the spring is fully stretched or compressed, resulting in the maximum storage of potential energy.