Same situation as before. This time it s a block of mass 1.24 kg sliding with a constant velocity of 4.13 m/s to the north, which collides 100% elastically with a second, stationary block, of mass 3.08 kg, head-on, and rebounds back to the south, eventually colliding 100% elastically with a wall and rebounding northward. It then overtakes the second block, which is still moving north as a result of the first collision. What will be the speeds of the 1.24-kg and 3.08-kg blocks, respectively, after their SECOND collision with one another? a. 2.63 m/s and 2.02 m/s b. 3.33 m/s and 0.95 m/s c. 2.47 m/s and 1.49 m/s d. 1.84 m/s and 1.22 m/s

Same situation as before. This time it s a block of mass 1.24 kg sliding with a constant velocity of 4.13 m/s to the north, which collides 100% elastically with a second, stationary block, of mass 3.08 kg, head-on, and rebounds back to the south, eventually colliding 100% elastically with a wall and rebounding northward. It then overtakes the second block, which is still moving north as a result of the first collision. What will be the speeds of the 1.24-kg and 3.08-kg blocks, respectively, after their SECOND collision with one another? a. 2.63 m/s and 2.02 m/s b. 3.33 m/s and 0.95 m/s c. 2.47 m/s and 1.49 m/s d. 1.84 m/s and 1.22 m/s

Similar questions

.
Do all parts correctly.
A block of mass 1.57 kg is placed on a frictionless floor and initially pushed northward, where upon it begins sliding with a constant speed of 5.16 m/s. It eventually collides with a second, stationary block, of mass 3.01 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.57-kg and 3.01-kg blocks, respectively, after this collision? 1.62 m/s and 3.54 m/s 3.54 m/s and 1.62 m/s 2.06 m/s and 2.58 m/s 0.65 m/s and 2.10 m/s
5) Same situation as before. This time it s a block of mass 1.55 kg sliding with a constant velocity of 5.62 m/s to the north, which collides 100% elastically with a second, stationary block, of mass 3.17 kg, head-on, and rebounds back to the south, eventually colliding 100% elastically with a wall and rebounding northward. It then overtakes the second block, which is still moving north as a result of the first collision. What will be the speeds of the 1.55-kg and 3.17-kg blocks, respectively, after their SECOND collision with one another? Question 5 options: 2.87 m/s and 2.17 m/s 1.72 m/s and 1.99 m/s 4.30 m/s and 2.53 m/s 5.50 m/s and 1.80 m/s
A block of mass 1.09 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 4.85 m/s. It eventually collides with a second, stationary block, of mass 4.19 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.09-kg and 4.19-kg blocks, respectively, after this collision? 2.85 m/s and 2.00 m/s 2.00 m/s and 2.85 m/s 1.73 m/s and 2.43 m/s 1.43 m/s and 2.64 m/s
A block of mass 1.46 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 3.93 m/s. It eventually collides with a second, stationary block, of mass 3.49 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.46-kg and 3.49-kg blocks, respectively, after this collision? 2.06 m/s and 1.97 m/s 0.81 m/s and 1.79 m/s 1.61 m/s and 2.32 m/s 2.32 m/s and 1.61 m/s
QUESTION 5 Same situation as before. This time it s a block of mass 1.91 kg sliding with a constant velocity of 4.88 m/s to the north, which collides 100% elastically with a second, stationary block, of mass 3.41 kg, head-on, and rebounds back to the south, eventually colliding 100% elastically with a wall and rebounding northward. It then overtakes the second block, which is still moving north as a result of the first collision. What will be the speeds of the 1.91-kg and 3.41-kg blocks, respectively, after their SECOND collision with one another? A 5.46 m/s and 1.96 m/s B 2.15 m/s and 4.11 m/s C 1.69 m/s and 3.04 m/s D 2.42 m/s and 6.26 m/s
A block of mass 1.43 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 5.70 m/s. It eventually collides with a second, stationary block, of mass 3.39 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.43-kg and 3.39-kg blocks, respectively, after this collision?
A block of mass 1.04 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 3.02 m/s. It eventually collides with a second, stationary block, of mass 4.88 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.04-kg and 4.88-kg blocks, respectively, after this collision? 1.06 m/s and 1.96 m/s 1.71 m/s and 1.51 m/s 0.98 m/s and 1.74 m/s 4 1.96 m/s and 1.06 m/s
A block of mass 1.98 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 5.64 m/s. It eventually collides with a second, stationary block, of mass 3.83 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.98-kg and 3.83-kg blocks, respectively, after this collision? 1.26 m/s and 2.31 m/s 1.80 m/s and 3.84 m/s 3.84 m/s and 1.80 m/s 2.61 m/s and 2.82 m/s
Two metal blocks are sliding across a frictionless floor. Block one has a mass of 4.75 kg and is sliding with a velocity of 3.25 m/s east (take east to be the positive x-direction). Block two has a mass of 7.25 kg and is sliding with a velocity of 7.39 m/s north (take north to be the positive y-direction). They collide and bounce apart but it is NOT a perfectly elastic collision. After the collision, block one is moving at 4.50 m/s at 75.0º north of east. Determine block two’s velocity in the Y-DIRECTION after the collision. (Report your answer in units of m/s, but only type the numerical answer (and any applicable sign).)
A 2-kg pellet travels with velocity 20 m/s to the right when it collides with a 38-kg hanging mass which is initially at rest. After the collision, the pellet remains lodged in the hanging mass, i.e., it is a completely inelastic collision. The hanging mass (+pellet) then swings upward and reaches a maximum height hmax before swinging downward again. Assume that no external forces are present and therefore the momentum of the system is conserved. What is the velocity vf of the hanging mass + pellet immediately after the collision? What is the final kinetic energy Kf of the hanging mass + pellet immediately after the collision? What is the maximum height hmax of the swinging hanging mass + pellet in centimeters?