We have to assume that both bodies are initially moving along the same straight line
in opposite directions, so the collision is "head on".
We also have to assume that the collision is "elastic", meaning that none of the
original kinetic energy is lost to heat.
The final momentum is 20 Kg-m/s in the direction opposite to the original 80 kg-m/s motion.
Momentum = (mass ) x (velocity) = (5) x (4) = 20 kg-meters/sec in the direction of the velocity.
momentum = mass times velocity momentum = .145 x 10 = 1.45 kg-m/sec
The formula is...momentum=velocity x massSo...momentum= 4m/s x 100kgmomentum= 400 kg m/s
Momentum = m V = 45 x 7.6 = 342 kg-m/sec
If you mean a brief moment of time: seconds.If you mean momentum: this is mass x velocity, so the units are kg x meters / secondsIf you mean a brief moment of time: seconds.If you mean momentum: this is mass x velocity, so the units are kg x meters / secondsIf you mean a brief moment of time: seconds.If you mean momentum: this is mass x velocity, so the units are kg x meters / secondsIf you mean a brief moment of time: seconds.If you mean momentum: this is mass x velocity, so the units are kg x meters / seconds
The law of conservation of momentum states that the total momentum before the collision is equal to the total momentum after the collision. Using this principle, we can determine the velocity after the collision to be ( \frac{8 \times 2 + 4 \times 0}{8 + 4} = \frac{16}{12} = 1.33 ) meters per second.
The mass of the skateboard is 11.25 kg. This can be calculated using the principle of conservation of momentum, where the momentum of the student before jumping is equal to the momentum of the student and skateboard after jumping.
The momentum of an object is given by the product of its mass and velocity. Therefore, the momentum of spaceship 1 before the collision is 0 kgm/s and the momentum of spaceship 2 before the collision is 1800 kgm/s. When they collide and stick together, their momenta are added, resulting in a combined momentum of 1800 kg*m/s.
Using the equation for conservation of momentum you can workk out the initial speed of the first truck which was 12 meters per second.
Angular momentum is defined as the cross product of a distance (from the axis of rotation) and a momentum, so you have to use units accordingly. In the SI, that would be meters x kilograms x meters / second, which you can simplify to meters squared x kilograms / second. This is equivalent to joules x seconds.
Momentum = (mass ) x (velocity) = (5) x (4) = 20 kg-meters/sec in the direction of the velocity.
The unit for momentum is kilogram meters per second (kg m/s).
The pins gained the same amount of momentum that the bowling ball lost, according to the law of conservation of momentum. So, the pins gained 0.5 kg meters per second of momentum in the opposite direction to the bowling ball's initial momentum.
The units for momentum are kilogram meters per second (kg m/s). Momentum is calculated by multiplying an object's mass (in kilograms) by its velocity (in meters per second).
The momentum of the boy is calculated by multiplying his mass by his velocity. Therefore, the momentum of the boy is 160 kilogram meters per second (40 kg x 4 m/s).
The unit of measurement for momentum is kg*m/s (kilogram meters per second).
To find the average force, we need to use the equation: average force = change in momentum / time. First, calculate the initial momentum of the ball: momentum = mass * velocity. Then, calculate the change in momentum by subtracting the initial momentum from 0 (since the ball stops). Finally, divide the change in momentum by the time taken for the collision to find the average force applied by the wall.