do 5 and 6 thank you so much Plotting the Data and Determining us5. Use whatever software you choose to plot speed squared vs radius, and find the best-fit line tothe data. Print your scatter plot and best fit line. (it should include the individual data points andthe best-fit line).ods wol Uolbosgeb vite blods il6. Write down the equation for your best-fit line above. Given this equation and the relationshipfrom number 3 above, determine the value of μs (coefficient of static friction between the 'randomobject' and ruler).s 2. Write down Newton's Second Law for the 'random object' in the radial and verticaldirections. Then incorporate what you know about centripetal acceleration and maximum staticfriction.Radial direction:Vertical direction:N=Fy3. Using the equations above, find the relationship between the speed of the 'random object' andthe radius. You should find that v² is proportional to r (the proportionality constant will involvethe coefficient of static friction and the gravitational acceleration g).FN-mg:M&N=M-| cymyEFr = f SHRE= maySmax(ymg = √²Data and CalculationsRadius (m)0.100EF₂ = Fo=n=0Z0.1500.2000.054. Conduct the experiment three for four different radii for the 'random object': 10, 15, 20 cm,and choose one other raidus on your own. In each case measure the time for 10 revolutions rightbefore the 'random object' slides off the ruler.msingTime for 10revolutions (s)09.06 .ob8.38510.694.35√²Period (s)1.2121,5162.128mj6.87v (m/s)113851,51772.63660.2133v² (m²/s²)1.29622,49537.21780.0747.

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5. Use whatever software you choose to plot speed squared vs radius, and find the best-fit line to the data. Print your seatter plot and best fit line. (it should include the individual data points and the best-fit line).

5. Use whatever software you choose to plot speed squared vs radius, and find the best-fit line to the data. Print your seatter plot and best fit line. (it should include the individual data points and the best-fit line).

University Physics Volume 1

18th Edition

ISBN:9781938168277

Author:William Moebs, Samuel J. Ling, Jeff Sanny

Publisher:William Moebs, Samuel J. Ling, Jeff Sanny

Chapter6: Applications Of Newton's Laws

Section: Chapter Questions

Problem 69P: (a) What is the radius of a bobsled turn banked at 75.0and taken at 30.0 m/s, assuming it is ideally...

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