Please answer the below question: Thanks. A raw egg with a mass of .07 kg is dropped without a protective device from 3 heights: a) 1 meter b) 6 meters and c) 13 meters Use Momentum and Impulse equations to compare the Momentum and Impulse at each height.

A ball with an initial velocity of 12.5 m/s and mass 1.8 kg moves at an angle 68° above the horizontal. The ball hits a vertical wall and bounces off so that it is again moving at 68° above the horizontal with the same speed. See the figure.What is the magnitude of the impulse delivered by the wall, in kilogram meters per second?

A ball of mass 0.160 kg is dropped from rest from a height of 1.25 m. It rebounds from the floor to reach a height of 0.650 m. What impulse was given to the ball by the floor? magnitude  kg · m/s direction  ---Select--- upward downward

A 1500 kg car traveling to the north is slowed down uniformly from initial velocity of 20 m/s by a 6000 N braking force acting opposite the car’s motion.  Use the impulse-momentum theorem to answer the following questions  What is the car’s velocity after 2.00 s? How far does the car move during 2.00 s? How long does it take the car to come to a complete stop?

Question 1 A 0.5 kg ball is thrown vertically upwards with an initial velocity of 10 m s¹¹. At its highest point, it momentarily stops before falling back down to the ground. Calculate the impulse experienced by the ball during the upward journey. ABCD 5 NS - 5 Ns ONS 10 N s

1.) A car (mass=400 kg) is traveling down a country road (speed is 10 m/s) when it collides with a deer (mass=200 kg) which is running in the opposite direction (speed is 2 m/s). The collision results in the deer getting stuck on the windshield. Treat this collision using the 'conservation of momentum' principle: a) Draw a sketch - label each MASS and each VELOCITY (with arrows for direction). b) Calculate the final speed of the car (remember the deer is stuck on top of the car) after collision (Note: they stick together to form a single mass)

Asteroid X, speeding at 100 m/s towards an equally massive but stationary asteroid Y, collides with a glancing blow. After collision, X is deflected 350 from its original direction while Y travels at 450 to the original direction of X. See the before & after picture of the collision below. Assuming total momentum is conserved, find the speed of each asteroid after collision. a.) V = 58.2 m/s, v = 71.8 m/s b.) v = 58.2 m/s, V = 71.8 m/s

1) A pickup truck (2,200 kg) and a compact car (1,100 kg) are moving so that they have the same momentum. What is the ratio of their kinetic energies? Explain how you figured this out.

Instruction: I already have the answer in this problem but I can't understand some part of it. Look at the image posted to see what part I can't understand and please explain it. I can't understand "Part B". How did he came up with the formula, h3=e2h2?   Topic: Impulse and Momentum A ball is dropped onto a horizontal floor. It reaches a height of 144 cm on the first bounce, and 81 cm on the second bounce. Find (a) the coefficient of restitution between the ball and floor and (b) the height it attains on the third bounce.

Alexia is doing some injury prevention and power work in the high performance center.  In doing a drop jump, she drops from a set height of 0.4 m above the ground and then immediately jumps back into the air as high and as fast as she can. When Alexia leaves the ground to jump up, her vertical velocity is 3.9 m/s.  a) What impulse did Alexia experience while she was in contact with the ground, if her mass was 58 kg? b) What average net force acted on Alexia if she was in contact with the ground for 0.37 seconds? c) What was the maximum change in height experienced by Alexia's Centre of Gravity after she left the ground? d) What was the average reaction force (Force Normal) exerted upwards on Alexia by the ground during the 0.37 seconds?