b. Draw a side-view quantitative diagram for a 70 kg rider using Force Factor values from the graphs. c. Use trigonometric analysis to determine the centripetal force on the rider at the full-speed bottom position. c. Use trigonometric analysis to determine the centripetal force on the rider at the top d. Determine the centripetal acceleration position. of the rider at the full-speed bottom position. 9. a. Once the ride is at the top position, observe the ride to estimate the angle between the and the vertical. rider’s torso d. Determine the centripetal acceleration of the rider at the top position. 10. a. Once the ride is at the side position, observe the ride to estimate the angle between the and the vertical rider’s torso when the rider is at the bottom of the circle of seats. b. Draw a quantitative side-view free-body diagram for a 70 kg rider using Force Factor values from the graphs.
c. Use trigonometric analysis to determine the centripetal force on the rider at the full-speed bottom position. d. Determine the centripetal acceleration of the rider at the full-speed bottom position. 9. a. Once the ride is at the top position, observe the ride to estimate the angle between the rider’s torso and the vertical. b. Draw a quantitative side-view diagram for a 70 kg rider using Force Factor values from the graphs. c. Use trigonometric analysis to determine the centripetal force on the rider at the top position. d. Determine the centripetal acceleration of the rider at the top position. 10. a. Once the ride is at the side position, observe the ride to estimate the angle between the rider’s torso and the vertical when the rider is at the bottom of the circle of seats. b. Draw a quantitative side-view free-body diagram for a 70 kg rider using Force Factor values from the graphs.
03full_Xcalibur%20v1.12.docx