Zero, since the velocity is zero.
The principle of conservation of momentum explains this result. The total momentum of the system before the collision is equal to the total momentum after the collision. In this case, the momentum gained by the 5kg cart moving at 10 m/s is equal to the momentum lost by the 10kg cart, resulting in a balanced conservation of momentum.
m = 4.5kg v = 2.2m/s M = 15kg V = ? ---- velocity of ham and cart before: momentum of ham = pv momentum of cart = 0 after: momentum of ham and cart = (m+M)V momentum of ham + momentum of cart = momentum of ham and cart mv + 0 = (m+M)V mv / (m+M) = V (4.5*2.2) / (4.5 + 15) = 0.51 kgm/s
if you add more weight or mass to any thing, it will incease its momentum. lets say you are grocery shopping and you add 5 bags of cat liter to your cart. inertia will increase and your momentum will increase. it easy, just picture it in you head. your welcome!!!!
The cart with the greater mass will have more momentum when they push away from each other, assuming they have equal velocities. Momentum is the product of an object's mass and velocity, so the cart with greater mass will possess more momentum.
Momentum (p) equals mass times velocity, or p=mv, and I assume that when the question says "moving at 64 km" it is referring to the cars velocity. The car will have a momentum of 32000 kg*km/s. The cart will have a momentum of 3000 kg*km/s. The truck will have a momentum of 32000 kg*km/s. The car and the truck both have a greater momentum than the cart.
The momentum of an object is calculated by multiplying its mass and velocity. In this case, the momentum of the 8 kg cart moving at 12 m/s would be 96 kg*m/s.
The momentum is given by the formula... p=mv p=momentum m=mass v=velocity In your question your mass is 30kg and your velocity is 10m/s just do simple math and your momentum is 300kg*m/s
The impulse is the product of the average force and the time period over which it is applied, as given by the formula: Impulse = Force x Time = N x s. This impulse results in a change in the cart's momentum, according to the principle of impulse-momentum theorem.
No it cannot. Even with forward momentum, it could not be said to have stopped.
It means that it can loose strength or momentum, that the product stopped and started up again
momentum is determined by the force that the object is pulled or pushed by or it can be determined by the position it's in. ex: when a cart is pushed down a hill when you're on roller skates and you're on the part of the hill that is like 5" away from top
It comes from the name of a Hindu deity, Jagernath. Apparently Jagernath was worshipped by preparing a large statue on a large and heavy cart which was then paraded. Due to momentum, once you got the cart going, it was hard to stop it.