Only number 3 A and B **Text Transcription for Educational Website:**---**3.** The Velcro is removed from the gliders, so the gliders bounce apart after the collision. The initial velocities are the same but now the 3 kg glider moves at 1.5 m/s to the left after the collision. **a.** What was the final velocity of the 2 kg glider after the collision? Give speed and direction. **b.** How much kinetic energy was lost during the collision?--- *Notes: There are no graphs or diagrams included in the text for further explanation.* **Problem 2: Glider Collision on an Air Track**Two gliders are on a very long air track with negligible friction. The setup includes:- A 3 kg glider located 2 meters from the left end of the track, moving at 2 m/s to the right.- A 2 kg glider initially located 5 meters from the left end, moving at 6 m/s to the left.- Springs with a spring constant \( k = 50 \, \text{N/m} \) are positioned at each end of the track.**Diagram:**The diagram depicts a linear track. On the left side, a spring is positioned at the very start (0 meters). A 3 kg glider is shown moving rightward with an arrow indicating its direction. Further to the right, there's a 2 kg glider moving leftward, also depicted with an arrow. On the right end, another spring is shown.**Questions:**a. **Where is the center of mass of the two-glider system initially located, measured from the left end of the track?**b. **The gliders are equipped with Velcro so they stick together after colliding. What will be their speed and direction (left/right) after the collision?**c. **The gliders eventually hit a spring. What is the maximum distance the gliders compress the spring?**

Name: Only number 3 A and B **Text Transcription for Educational Website:**-
Uploaded: 2024-03-20T06:57:37.000Z
Channel: Bartleby
Description: Only number 3 A and B **Text Transcription for Educational Website:**---**3.** The Velcro is removed from the gliders, so the gliders bounce apart after the collision. The initial velocities are the same but now the 3 kg glider moves at 1.5 m/s to th