Stretch of Vertical Spring: Oscillating at 5.87 Hz

In summary, "stretch" in the context of a vertical spring refers to the distance the spring is extended from its resting position when a force is applied to it. The frequency of a vertical spring, such as 5.87 Hz, is determined by the rate at which it oscillates when a force is applied. Factors that can affect the stretch at 5.87 Hz include the amplitude of the force, mass of the object, and stiffness of the spring. As the frequency increases, the stretch of the vertical spring also increases. Studying the stretch at 5.87 Hz has practical applications in engineering and physics, including the design and optimization of spring systems and understanding the behavior of objects attached to springs.
  • #1
yuvlevental
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An object, suspended from a vertical spring, oscillates up and down at 5.87 Hz. How much would this object stretch the spring, if it were hanging at rest?
 
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  • #2
How does the frequency of the simple harmonic motion relate to the spring constant and mass of the object?
 
  • #3


The amount of stretch on the vertical spring would depend on the properties of the spring, such as its spring constant and length. However, we can calculate an estimate using Hooke's Law, which states that the force exerted by a spring is directly proportional to the distance it is stretched or compressed.

Assuming that the object is hanging at rest, the force of gravity acting on it would be equal to the force exerted by the spring. Therefore, we can set up the equation F = kx, where F is the force, k is the spring constant, and x is the distance the spring is stretched.

To find the distance x, we can rearrange the equation to x = F/k. The force F can be calculated using the formula F = mg, where m is the mass of the object and g is the acceleration due to gravity (9.8 m/s^2).

Substituting the values, we get x = (mg)/k. This means that the distance the spring is stretched is directly proportional to the mass of the object and inversely proportional to the spring constant. Therefore, the greater the mass of the object, the more the spring will stretch, and the smaller the spring constant, the more the spring will stretch.

In conclusion, the amount that the vertical spring will stretch when the object is hanging at rest will depend on the properties of the spring and the mass of the object. It is not possible to determine the exact amount without knowing these variables, but we can estimate it using Hooke's Law.
 

1. What is the meaning of "stretch" in the context of a vertical spring?

The term "stretch" refers to the distance the spring is extended from its resting position when a force is applied to it. In the case of a vertical spring, this would be the distance from the top of the spring to the bottom when it is stretched downwards.

2. How is the frequency of 5.87 Hz determined for a vertical spring?

The frequency of a vertical spring is determined by the rate at which it oscillates, or moves back and forth, when a force is applied to it. In the case of a frequency of 5.87 Hz, this means that the spring is completing 5.87 full oscillations per second.

3. What factors can affect the stretch of a vertical spring at 5.87 Hz?

The stretch of a vertical spring at 5.87 Hz can be affected by several factors, including the amplitude of the force applied to the spring, the mass of the object attached to the spring, and the stiffness of the spring itself.

4. How does the stretch of a vertical spring change as the frequency increases?

As the frequency increases, the stretch of a vertical spring will also increase. This is because a higher frequency means the spring is oscillating more rapidly, causing it to stretch further in each cycle.

5. What are the practical applications of studying the stretch of a vertical spring oscillating at 5.87 Hz?

The study of the stretch of a vertical spring oscillating at 5.87 Hz has practical applications in fields such as engineering and physics. This knowledge can be used to design and optimize spring systems in various products such as shock absorbers, suspension systems, and even musical instruments. It can also help in understanding and predicting the behavior of objects attached to springs, such as in pendulum systems.

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