Course Hero Logo

4C3FAB7C-BF54-4B56-9374-6DD450FDF5E8.jpeg - Slinky Part B...

Course Hero uses AI to attempt to automatically extract content from documents to surface to you and others so you can study better, e.g., in search results, to enrich docs, and more. This preview shows page 1 out of 1 page.

End of preview. Want to read the entire page?

Upload your study docs or become a

Course Hero member to access this document

Term
Spring
Professor
N/A
Tags
Light, Wavelength, Metre, Richard Lineback

Unformatted text preview: Slinky Part B youanny T. Part B And HR table 1. Get two ring stands with the attached pole and put the poles exactly 1.0 meter apart on a 2. Take a slinky and count 3 or 4 coils from one end and slide that space down over one of the 3. poles , then do the same on the other end of the slinky with the other ring stand. Go to one of the ring stands and count 13-16 coils towards the middle of the slinky, and using your finger pull those coils straight back towards the ring stand. 4. When you get to the stand measure the distance (width) ( in meters ) of these bunched up coils - This will be the compression part of the longitudinal wave so multiply times 2 for the full wavelength ( A ) (accounts for also the refraction part of the wave.) 5. Using a stopwatch, measure the time it takes for the wave to go down to the other stand and back, and record this time. 6. Divide the total distance (2 m) by the time to calculate the velocity of the wave V = d / t 7. Move the ring stands so now they are 1.5 meters apart , again pull your rings back, measure the bunch width again, multiply times 2, record this as the wavelength ( A ) Again time down and back, - ( remember the total length is now ** 3.0 m ) so calculate the the velocity 8. Repeat the above for the distance 2.0 meters and 2.5 meters. Fill in the chart Distance Stand's Separated 1.0 m 1.5 m 2.0 m 2.5 m Wavelength A ( m ) 2 x's bunched up coils 2:4 2.4 2.4 2. 41 Time for wave to go down and back (sec) . 79 . 83 . 89 . 98 Velocity of the Wave m / sec * * 2.53 3.61 4. 49 5.10 Now that you know the wavelength and the speed of the wave you can calculate the frequency of the wave by using f = V / A Distance Stand's Separated F = VIA 1.0 m 1.5 m 2.0 m 2.5 m Frequency (Hz) 1.05 1.50 187 12. 12 Part A Which set had the lowest frequency ? Which set of coils had the slowest wave speed ? The first set (set lion) What was it that cause it to be the slowest The last (sex 2:5m ) had the slowest had the lowest freq, weary. wave speed . This is due to the longer distance. Part B - What happened to the wave speed when you stretched the slinky longer ? Why do you think this happened ? The wave speed increased when we stretched space to travel the slindsy longer and I think this occured ave to having move See the teacher about graphing your data results for part A and B...
View Full Document

Newly uploaded documents

Show More

Newly uploaded documents

Show More

  • Left Quote Icon

    Student Picture

  • Left Quote Icon

    Student Picture

  • Left Quote Icon

    Student Picture