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            <Attribute name="description">Simple harmonic motion (SHM) can be modeled mathematically as a second-order differential equation derived using Newton’s second law. The solution to this differential equation is the object’s position as a function of time, which is sinusoidal. The position function can be differentiated with respect to time to find the object’s velocity and acceleration functions, which are also sinusoidal.</Attribute>
            <Attribute name="author">Mahesh Shenoy</Attribute>
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            <video:description>Simple harmonic motion (SHM) can be modeled mathematically as a second-order differential equation derived using Newton’s second law. The solution to this differential equation is the object’s position as a function of time, which is sinusoidal. The position function can be differentiated with respect to time to find the object’s velocity and acceleration functions, which are also sinusoidal.</video:description>
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            <video:category>Modeling simple harmonic motion</video:category>
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            <Attribute name="description">A physical pendulum is a rigid system that undergoes oscillation about a fixed axis. For small amplitudes of motion, the period of a physical pendulum is derived from the application of Newton’s second law in rotational form. A simple pendulum is a special case of physical pendulums in which the object can be modeled as a point mass hanging from the pivot point. A torsion pendulum involves a twisted wire or other material that behaves analogously to a spring. If the wire exerts a restoring torque proportional to its angle of twist, simple harmonic motion can result.</Attribute>
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            <video:description>A physical pendulum is a rigid system that undergoes oscillation about a fixed axis. For small amplitudes of motion, the period of a physical pendulum is derived from the application of Newton’s second law in rotational form. A simple pendulum is a special case of physical pendulums in which the object can be modeled as a point mass hanging from the pivot point. A torsion pendulum involves a twisted wire or other material that behaves analogously to a spring. If the wire exerts a restoring torque proportional to its angle of twist, simple harmonic motion can result.</video:description>
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