How Far Does a Tuning Fork Tine Travel in One Minute?

In summary, the problem involves finding the total distance traveled by a tuning fork in one minute, given its amplitude of 0.25cm and frequency of 150 Hz. The solution requires understanding that one period is not one second, but rather the time taken for one complete cycle, and using the formula T=1/f to calculate the number of periods in one minute.
  • #1
Sace Ver
79
2
Member warned to show some attempt and relevant equations.

Homework Statement



The tine of a tuning fork, when struck, has an amplitude of 0.25cm. If the frequency is 150 Hz, what total distance with the tine travel in 1.00 min?

Homework Equations

The Attempt at a Solution



Not sure how to solve this problem.
 
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  • #2
What distance does the tine travel in one period?
How many periods in one minute?
 
  • #3
PietKuip said:
What distance does the tine travel in one period?
How many periods in one minute?

PietKuip said:
What distance does the tine travel in one period?
How many periods in one minute?
Is one period one second?
 
  • #4
PietKuip said:
What distance does the tine travel in one period?
How many periods in one minute?
Do I need to use formula T=1/f
 
  • #5
Sace Ver said:
Is one period one second?
No. But you do not need to know the period of oscillation to say what distance the tine travels during one oscillation.
 
  • #6
Sace Ver said:
Is one period one second?
Period, in this context, means the time taken for one complete cycle.
 

FAQ: How Far Does a Tuning Fork Tine Travel in One Minute?

1. What are traveling time waves and sound?

Traveling time waves and sound are types of waves that propagate through a medium, such as air or water. They are characterized by the transfer of energy from one point to another without the physical movement of matter. These waves are responsible for carrying sound and allowing us to hear and communicate with each other.

2. How do traveling time waves and sound differ?

Traveling time waves and sound differ in terms of their frequency, wavelength, and speed. Traveling time waves have a much higher frequency and shorter wavelength compared to sound waves, which have a lower frequency and longer wavelength. Additionally, traveling time waves can travel through both solid and liquid mediums, while sound waves can only travel through air, water, and other elastic solids.

3. What factors affect the speed of traveling time waves and sound?

The speed of traveling time waves and sound is affected by several factors, including the properties of the medium they are traveling through, such as density and elasticity. Additionally, the temperature and pressure of the medium can also impact the speed of these waves. In general, traveling time waves travel faster in denser and more elastic mediums, while sound waves travel faster in warmer and less dense mediums.

4. How do traveling time waves and sound interact with each other?

Traveling time waves and sound can interact with each other in several ways. For example, when sound waves travel through a medium, they can cause the particles in that medium to vibrate, creating traveling time waves. On the other hand, traveling time waves can also cause sound waves to be refracted, reflected, or diffracted, depending on the properties of the medium they are traveling through.

5. What are some real-world applications of traveling time waves and sound?

Traveling time waves and sound have numerous real-world applications, including communication systems, medical imaging techniques like ultrasound, and earthquake detection. They are also used in various industries, such as oil exploration, where sound waves are sent underground to gather information about the layers of the earth. Additionally, traveling time waves play a crucial role in the study of seismology, which helps us understand the structure and composition of the earth's interior.

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