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Category > Math Posted 20 Apr 2017 My Price 11.00

graph the trajectory of the ball

I pasted the project, but it would not copy the picture and formula. I attached the whole problem with both. Please let me know if you can open it.

 

Modeling Projectile Motion Project

 

Instructions: You MUST show all of your work and explain each algebraic step in words. Submit your solutions as a Microsoft Word document, with the following name format .Use the built-in Equation Editor (Insert Equation) tool for mathematical expressions. If you use Excel to support any calculations and/or as a graphical tool, you must submit the companion Excel file (please save the file under the same name). 

 

 

Modeling the Projectile Motion of a Soccer Ball

(Adapted from Lasode, Popoola & Olaleye, 2009)

Invented by the English but perfected by the Brazilians, the Jogo Bonito (The Best Brazilian Goals Ever) has reached every corner of the planet culturally and scientifically, and mathematics is no stranger to the game. The professional games held by FIFA are played in a stadium approximately 110 meters long and 90 meters wide. The projectile motion of the ball is usually affected by drag, which is a complicated function of the projectile velocity relative to air, based on experimental data.

 

PART I: Motion in the Absence of Drag. The equations of the ball's motion in the absence of drag are:

Figure 1: Soccer Field Dimensions (Metric units) (Source: SportsCourtDimensions.com.)

 

formula here 

and picture here

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Where the gravitational acceleration g = 9.8 m/s2 is constant and θ is in radians. Answer the following questions:

 

  • Find y as a function of x.

 

  • Use the function found in (1) to find the distance traveled by a ball struck with a speed of 30 m/s at an angle of 45o.

 

PART II: Motion with Drag. The equations of the ball's motion in the presence of drag are given by:

 

 

 

Where the gravitational acceleration g = 9.8 m/s2 is constant and θ is in radians. Please answer the following questions:

 

  • Find y as a function of x.

 

  • Use the function found in (1) and find the distance traveled by a ball struck with a speed of 30 m/s at an angle of 45o.

 

PART III: O gol que ... On March, 06 1970, the world experienced one of the greatest goal kicks of all times during the Brazil vs. Czechoslovakia game. The great Pele shot the ball 5 meters before the midfield line and almost scored, and Brazilian physicists made a mathematical analysis of the shot (O gol que Pelé não fez). Based on the information given in the video and using some assumptions, the following information can be concluded: Vo = 29.167 m/s, θ = 24.212o, and k = 0.2976. Please answer the following questions:

 

  • Use Microsoft Excel to graph the trajectory of the ball with and without drag using a [0, 70] by [0, 10] window. Please place the horizontal distance traveled on the x-axis and the vertical distance traveled on the y-axis.

 

Based on your graph, was there air resistance present during the shot? Elaborate.

 

 

Modeling Projectile Motion Project
Instructions: You MUST show all of your work and explain each algebraic step in
words. Use the built-in Equation Editor (Insert Equation) tool for mathematical
expressions. If you use Excel to support any calculations and/or as a graphical tool, you
must submit the companion Excel file (please save the file under the same name).
Modeling the Projectile Motion of a Soccer Ball
(Adapted from Lasode, Popoola & Olaleye, 2009)
Invented by the English but perfected by the Brazilians, the Jogo Bonito (The Best
Brazilian Goals Ever) has reached every corner of the planet culturally and scientifically,
and mathematics is no stranger to the game. The professional games held by FIFA are
played in a stadium approximately 110 meters long and 90 meters wide. The projectile
motion of the ball is usually affected by drag, which is a complicated function of the
projectile velocity relative to air, based on experimental data.
PART I: Motion in the Absence of Drag. The equations of the ball's motion in the
absence of drag are:
Figure 1: Soccer Field Dimensions (Metric units) (Source:
SportsCourtDimensions.com.) Where the gravitational acceleration g = 9.8 m/s2 is constant and θ is in radians. Answer
the following questions:
1. Find y as a function of x.
2. Use the function found in (1) to find the distance traveled by a ball struck with a
speed of 30 m/s at an angle of 45o.
PART II: Motion with Drag. The equations of the ball's motion in the presence of drag
are given by: Where the gravitational acceleration g = 9.8 m/s2 is constant and θ is in radians. Please
answer the following questions:
1. Find y as a function of x.
2. Use the function found in (1) and find the distance traveled by a ball struck with a
speed of 30 m/s at an angle of 45o.
PART III: O gol que ... On March, 06 1970, the world experienced one of the greatest
goal kicks of all times during the Brazil vs. Czechoslovakia game. The great Pele shot the
ball 5 meters before the midfield line and almost scored, and Brazilian physicists made a
mathematical analysis of the shot (O gol que Pelé não fez). Based on the information
given in the video and using some assumptions, the following information can be
concluded: Vo = 29.167 m/s, θ = 24.212o, and k = 0.2976. Please answer the following
questions:
1. Use Microsoft Excel to graph the trajectory of the ball with and without drag using a
[0, 70] by [0, 10] window. Please place the horizontal distance traveled on the x-axis
and the vertical distance traveled on the y-axis.
2. Based on your graph, was there air resistance present during the shot? Elaborate.

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Answers

(11)
Status NEW Posted 20 Apr 2017 01:04 AM My Price 11.00

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Attachments

file 1492652613-Solutions file 2.docx preview (51 words )
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