A car of mass 1495 kg traveling at 13.60 m/s collides and sticks to a car with a mass of 1853 kg initially at rest. What is the resulting velocity of the two cars right after the collision, assuming that there's no friction present?

Two cars approach an ice-covered intersection. One car, of mass 1.27  103 kg, is initially traveling north at 11.6 m/s. The other car, of mass 1.64  103 kg, is initially traveling east at 11.6 m/s. The cars reach the intersection at the same instant, collide, and move off coupled together. Find the velocity of the center of mass of the two-car system just after the collision. magnitude   direction  north of east

A 13 kg mass traveling at 4 m/s meets and collides with a 3 kg mass traveling at 6 m/s in the opposite direction. The objects bounce off of each other. Take the rightward direction to be positive. Name the type of collision (elastic or inelastic). Then find the final velocities of both objects.

Two cars approach an ice-covered intersection. One car, of mass 1.10  103 kg, is initially traveling north at 10.1 m/s. The other car, of mass 1.55  103 kg, is initially traveling east at 10.1 m/s. The cars reach the intersection at the same instant, collide, and move off coupled together. Find the velocity of the center of mass of the two-car system just after the collision. Magnitude:

A car (mass = 1110 kg) is traveling at 31.3 m/s when it collides head-on with a sport utility vehicle (mass = 2380 kg) traveling in the opposite direction. In the collision, the two vehicles come to a halt. At what speed was the sport utility vehicle traveling?

Two car approach an intersection at a right angle to each other.  If an inelastic collision occurs at the intersection, determine the x component of the final momentum of the combined vehicles.  Car 1 of mass 806.45 kg approaches the intersection from the left with a speed of 23.12 m/s.  Car 2 of mass 1,983.43 kg approaches the intersection from the south with a speed of 20 m/s.

An 80 kg running back moving at 5.0 m/s attempts to dive directly across the goal line for a touchdown. Just as he reaches the line, he is met head-on in mid-air by two 75 kg linebackers both moving in the direction opposite the running back at 2.8 m/s. They all become entangled as one mass. What is the velocity of the football players often the collision?

A block of mass 1.73 kg is placed on a frictionless floor and initially pushed northward, whereupon it begins sliding with a constant speed of 5.57 m/s. It eventually collides with a second, stationary block, of mass 3.05 kg, head-on, and rebounds back to the south. The collision is 100% elastic. What will be the speeds of the 1.73-kg and 3.05-kg blocks, respectively, after this collision? 1 4.03 m/s and 1.54 m/s 2 2.21 m/s and 2.79 m/s 3 0.62 m/s and 2.17 m/s 4 1.54 m/s and 4.03 m/s

A 92 kg boulder , moving at 5.0 m/s attempts to pass directly across the adit of a mine. Just as the boulder reaches the end of the adit, it was met head-on in midair by two 75 kg miners, both moving in the direction opposite the boulder. One is moving 2.0 m/s, the other at 3.0 m/s . They all become entangled as one mass. What is their velocity after the collision? 18. What is the momentum of a 18 kg object traveling at a constant velocity that has 295 J of kinetic energy?

Object A traveling east at 9.56 m/s collides with object B traveling west at 3.24 m/s. Object A has mass 5.11 kg and object B has mass 2.06 kg. The collsion takes place in one dimension, and is elastic. Taking east to be positive, find the velocity of object A (in m/s) after the collision.