If the two bodies form a closed and isolated system (that is no other external forces act on the system apart from the forces that the bodies exert on each other and no mass is allowed to enter or leave the system), the principle of conservation of momentum SHOULD be used.
Remember: As long as the condition in the brackets above hold, the principle of conservation of momentum holds.
Next, depending on the nature of the collision, another conservation law can be used. If the collision is perfectly elastic, then kinetic energy is conserved.
Note that although kinetic energy is not always conserved, TOTAL energy is ALWAYS conserved. You could still apply the principle of conservation of energy for an inelastic collision provided you knew the amount of energy converted to other forms of energy.
the momentum and energy is transferred and someone gets hurt, for an example watch Clay Matthews.
The original momentum of the more massive marble
Collisions in the normal setting of life on Earth are complicated. Moving objects lose energy to air friction. Momentum in many cases is transferred to the Earth, where it becomes invisible, because it is such a tiny fraction of the Earth's total momentum. A toy truck and a toy car could collide in such a way that they both stop moving, but that does not mean that momentum has disappeared; it means that since they were moving in opposite directions in the first place, the algebraic sum of their momentum was zero in the first place. In outer space, you could see a simpler example of how momentum is transferred from one moving object to another, and how it is conserved. Momentum is always conserved, but often in such a complicated way that it is not easily perceived.
Momentum of any object is given by p = m*vWhere p = momentum, m = mass and v = velocity.If an object is not moving that means its velocity is zero and by using above mentioned formula we get, p = m*0, p = 0.
Momentum is always conserved, so provided no pieces come off:initial momentum = final momentum (where momentum is mass*velocity)MU=MV+mv is the equation to be used, if m is very small, then V is roughly equal to U, that is that if the stationary object is very light compared to the moving one, the moving one doesn't change it's veocity very much and the smaller one moves at a similar speed. I m is bigger (like a wall), the moving mass can stop, or even reverse its motion.if energy is conserved, speed of separation = speed of approach (ie. U=v-V)I hope this was helpful to youI don't know if this is right! :o
the momentum and energy is transferred and someone gets hurt, for an example watch Clay Matthews.
The original momentum of the more massive marble
Their combined momentum will be equal to the first boxcar's original momentum before the collision.
the force or other moving object
based on the momentum formula, momentum equals mass times velocity, momentum can be achieved when something with mass is moving. P=mv
Momentum
The formula is, quite simply, that the momentum before and after the shot is the same. You can assume that the momentum before the shot is zero (because the rifle and the bullet were not moving), so after the shot, the total momentum will also be zero.
When a moving plate collides and is pushed under another plate it is known as a subduction zone. Subduction zones are located at convergent bounties. The plate that is pushed beneath the other plate is then consumed in the asthenosphere.
Collisions in the normal setting of life on Earth are complicated. Moving objects lose energy to air friction. Momentum in many cases is transferred to the Earth, where it becomes invisible, because it is such a tiny fraction of the Earth's total momentum. A toy truck and a toy car could collide in such a way that they both stop moving, but that does not mean that momentum has disappeared; it means that since they were moving in opposite directions in the first place, the algebraic sum of their momentum was zero in the first place. In outer space, you could see a simpler example of how momentum is transferred from one moving object to another, and how it is conserved. Momentum is always conserved, but often in such a complicated way that it is not easily perceived.
Momentum of any object is given by p = m*vWhere p = momentum, m = mass and v = velocity.If an object is not moving that means its velocity is zero and by using above mentioned formula we get, p = m*0, p = 0.
No, it does not have a momentum of zero because the formula for momentum is p = m x v, therefore since the plane has a mass and it is moving, there is momentum.*p = momentum*m = mass (kg)*v = velocity (m/s)
Use the formula that defines momentum: Momentum = mass x velocity