In the figure below, block 1 of mass m1 slides along an x axis on a frictionless floor with a speed of v1i = 3.20 m/s. Then it undergoes a one-dimensional elastic collision with stationary block 2 of mass m2 = 0.250m1. Next, block 2 undergoes a one-dimensional elastic collision with stationary block 3 of mass m3 = 0.250m2. (a) Express the speed of block 3 just after the collision in terms of the initial speed of block 1, v1i. Note whether it is greater than, less than, or equal to the initial speed of block 1. v3 = ✕ v1i (b) Express the kinetic energy of block 3 just after the collision in terms of the initial kinetic energy of block 1, K1i. Note whether it is greater than, less than, or equal to the initial kinetic energy of block 1. K3 = ✕ K1i (c) Repeat for the magnitude of momentum of block 3 just after the collision, noting whether it is greater than, less than, or equal to the initial magnitude of momentum of block 1. p3 = ✕ p1i


In the figure below, block 1 of mass m1 slides along an x axis on a frictionless floor with a speed of v1i = 3.20 m/s. T...
In the figure below, block 1 of mass m1 slides along an x axis
on a frictionless floor with a speed of 1.80 m/s. Then it undergoes
a one-dimensional elastic collision with stationary block 2 of mass
m2 = 2.50m1. Next, block 2 undergoes a one-dimensional elastic
collision with stationary block 3 of mass m3 = 2.50m2. (a) Express
the speed of block 3 just after the collision in terms of the
initial speed of block 1, v1i. Note whether...
In the figure, particle 1 of mass m1 = 3.3 kg slides rightward
along an x axis on a frictionless floor with a speed of 5.0
m/s. When it reaches x = 0, it undergoes a one-dimensional elastic
collision with stationary particle 2 of mass m2 = 4.3 kg. When
particle 2 then reaches a wall at xw = 73 cm, it bounces from the
wall with no loss of speed. At what position on the x-axis does
particle 2...
Block 1, of mass m1 = 9.90 kg , moves along a frictionless air track with speed v1 = 31.0 m/s . It collides with block 2, of mass m2 = 51.0 kg , which was initially at rest. The blocks stick together after the collision. Find the magnitude pi of the total initial momentum of the two-block system. Express your answer numerically. Find vf, the magnitude of the final velocity of the two-block system. Express your answer numerically. What...
Block 1, of mass m1 = 2.30 kg, moves along a frictionless air track with speed v1 = 31.0 m/s. It collides with block 2, of mass m2 = 13.0 kg, which was initially at rest. The blocks stick together after the collision. A) Find the magnitude pi of the total initial momentum of the two-block system. B) Find vf, the magnitude of the final velocity of the two-block system C)What is the change ΔK=Kfinal−Kinitial in the two-block system's kinetic...
In Figure 9-69, block 1 of mass m1 slides from rest along a frictionless ramp from height h and then collides with stationary block 2, which has mass m2 = 3m1. After the collision, block 2 slides into a region where the coefficient of kinetic friction is ?k and comes to a stop in distance d within that region. What is the value of distance d if the collision is (a) elastic and (b) completely inelastic? Express your answer in...
Block 1 of mass m1 slides from rest along a frictionless ramp from an unknown height h and then collides with stationary block 2, which has mass m2 = 3m1 . The collision is an elastic one. After the collision, block 2 slides into a friction-filled region where the coefficient of kinetic friction is 0.5 and comes to a stop through a distance d = 10 m in that region. (a) What is the height h? (b) What is the...
Cart 1, with m1= 5.5 kg, is moving on a frictionless linear air track at an initial speed of 1.7 m/s. It undergoes an elastic collision with an initially stationary cart 2, with m2, an unknown mass. After the collision, cart 1 continues in its original direction at 0.6 m/s. 1) The horizontal component of the momentum is conserved for A. cart 1. B. cart 2. C. the system of cart 1 and cart 2. D. Momentum is not conserved...
Block 1, of mass m1 = 1.10 kg , moves along a frictionless air track with speed v1 = 29.0 m/s . It collides with block 2, of mass m2 = 45.0 kg , which was initially at rest. The blocks stick together after the collision. (Figure 1) Find the magnitude pi of the total initial momentum of the two-block system. Find vf, the magnitude of the final velocity of the two-block system. What is the change ΔK=Kfinal−Kinitial in the...
In the figure, block 1 of mass m1 slides from rest along a
frictionless ramp from height h = 3.2 m and then collides with
stationary block 2, which has mass m2 = 3m1. After the collision,
block 2 slides into a region where the coefficient of kinetic
friction ?k is 0.2 and comes to a stop in distance d within that
region. What is the value of distance d if the collision is (a)
elastic and (b) completely inelastic?
In the figure, block 1 of mass m1 slides
from rest along a frictionless ramp from height h = 2.1 m
and then collides with stationary block 2, which has mass
m2 = 2m1. After the
collision, block 2 slides into a region where the coefficient of
kinetic friction μk is 0.1 and comes to a stop
in distance d within that region. What is the value of
distance d if the collision is (a)
elastic and (b) completely inelastic?