1. The problem statement, all variables and given/known data Part 1: EDIT: I got part 1. The answers is 11.1m/s can anyone still help me with the others? I got 11.1 by this formula: Vi-(9.8*t) A ball is kicked from a location on the ground ~ri = <10, 0,−8>m with initial velocity ~vi = <−10, 16,−5> m/s. The ball’s speed is low enough that air resistance is negligible. Find the y component of the ball’s velocity 0.5 s after being kicked. (Use the Momentum Principle!) Answer in units of m/s 2. In this situation (constant force), which velocity will give the most accurate value for the location of the ball 0.5 s after it is kicked? 1. The final velocity of the ball 2. The initial velocity of the ball 3. The arithmetic mean of the initial and final velocities 3. What is the y component of the average velocity (vector) of the ball over this time interval? Start by finding Vavg,y. Answer in units of m/s 4. Now use the average velocity to find the y component of the ball’s position 0.5 s after being kicked. Answer in units of m 5. Now consider a different time interval: the interval between the initial kick and the moment when the ball reaches its highest point. We want to find how long it takes for the ball to reach this point, and how high the ball goes. What is the y component of the ball’s velocity at the instant when the ball reaches its highest point (the end of this time interval)? Answer in units of m/s 6. Consider the expression for the update form of the momentum principle, mvf,y = mvi,y + Fnet,y delta(t). If you were to simplify this expression and fill in all known quantities with numerical values, what would you end up with? (Here, vf,y refers to the y component of the ball’s velocity at the highest point in its trajectory.) 1. 11.1 m/s = 16 m/s+(−9.8 m/s2) (0.5 s) 2. 0 = 11.1 m/s + (−9.8 m/s2)delta(t) 3. 0 = 16 m/s + (−9.8 m/s2) (0.5 s) 4. 0 = 16 m/s + (−9.8 m/s2)delta(t) 5. 11.1 m/s = 16 m/s + (−9.8 m/s2)delta(t) 7. How long does it take for the ball to reach its highest point? Answer in units of s 8. Knowing the time you calculated in the previous parts, first find the y component of the average velocity during this time interval, and then use it to find the maximum height attained by the ball. Answer in units of m 2. Relevant equations p=gamma(m)(v) Momentum Principle Pf=Pi +Fnet(delta(T)) 3. The attempt at a solution I tried using the momentum principle but I don't know where to get the final velocity from. Any help is appreciate. I can't seem to figure out how to do this multiple question problem. It is due in about a 1 hour and 30 minutes. So please help me out if you know anyway to figure out how to do this.