I am having trouble with this computer aided engineering problem in Matlab. A two-inch diameter craft ball is thrown vertically. The initial velocity of the ball is 20 ft/s. Neglecting drag, draw a free body diagram and formulate a first order ODE that governs the velocity of the ball. Is the ODE linear or non-linear? Use Euler’s first order method to determine the “drag free” time required to achieve maximum elevation. Check your solution with the analytic solution to the ODE that governs the motion of the ball. Drag force is known to be proportional to the velocity squared. Draw a free body diagram and formulate a first order ODE that governs the actual velocity of the ball. Is the ODE linear or non-linear? To determine the drag coefficient effect, an experiment has been conducted that showed the terminal velocity of the ball (during a free fall) to be 20 ft/s. Use Euler’s method to estimate the “actual” time to achieve maximum elevation for the case that the ball is thrown up with the given initial velocity (20 ft/s). I worked out the v(t) = -32.2 * t + 20 continuing from here is giving me issue. Any hints or examples would be apprciated.

# I am having trouble with this computer aided engineering problem in Matlab. A two-inch diameter craft ball is thrown vertically. The initial velocity of the ball is 20 ft/s. Neglecting drag, draw a free body diagram and formulate a first order ODE that governs the velocity of the ball. Is the ODE linear or non-linear? Use Euler’s first order method to determine the “drag free” time required to achieve maximum elevation. Check your solution with the analytic solution to the ODE that governs the motion of the ball. Drag force is known to be proportional to the velocity squared. Draw a free body diagram and formulate a first order ODE that governs the actual velocity of the ball. Is the ODE linear or non-linear? To determine the drag coefficient effect, an experiment has been conducted that showed the terminal velocity of the ball (during a free fall) to be 20 ft/s. Use Euler’s method to estimate the “actual” time to achieve maximum elevation for the case that the ball is thrown up with the given initial velocity (20 ft/s). I worked out the v(t) = -32.2 * t + 20 continuing from here is giving me issue. Any hints or examples would be apprciated.

Principles of Heat Transfer (Activate Learning with these NEW titles from Engineering!)

8th Edition

ISBN:9781305387102

Author:Kreith, Frank; Manglik, Raj M.

Publisher:Kreith, Frank; Manglik, Raj M.

Chapter5: Analysis Of Convection Heat Transfer

Section: Chapter Questions

Problem 5.33P

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I am having trouble with this computer aided engineering problem in Matlab.

- A two-inch diameter craft ball is thrown vertically. The initial velocity of the ball is 20 ft/s.

- Neglecting drag, draw a free body diagram and formulate a first order ODE that governs the velocity of the ball. Is the ODE linear or non-linear?

- Use Euler’s first order method to determine the “drag free” time required to achieve maximum elevation. Check your solution with the analytic solution to the ODE that governs the motion of the ball.

- Drag force is known to be proportional to the velocity squared. Draw a free body diagram and formulate a first order ODE that governs the actual velocity of the ball. Is the ODE linear or non-linear?

To determine the drag coefficient effect, an experiment has been conducted that showed the terminal velocity of the ball (during a free fall) to be 20 ft/s. Use Euler’s method to estimate the “actual” time to achieve maximum elevation for the case that the ball is thrown up with the given initial velocity (20 ft/s).

I worked out the v(t) = -32.2 * t + 20

continuing from here is giving me issue. Any hints or examples would be apprciated.

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Step 1: Draw a free body diagram and formulate a first order ODE that governs the velocity of the ball

VIEWStep 2: Use Euler’s first order method to determine the drag free time required to achieve maximum elevation

VIEWStep 3: Drag force is known to be proportional to the velocity squared. Draw a free body diagram and formula

VIEWStep 4: Determine the drag coefficient effect.

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