Momentum is mass times velocity, if the velocity of the two are the same, the object with the greater mass will have proportionally greater momentum.
Momentum = Mass x Velocity (p=mv)Of course an object at rest would have no momentum no matter what the mass is (velocity = 0 so momentum = 0).Playing volleyball with a balloon might be something that would be considered low momentum. You can hit it as hard as you like, but it has so little mass that its momentum can hardly overcome the air resistance.You might push a small car at, say 1/4 MPH, and it would have relatively little momentum.However a train traveling at the same 1/4 MPH would still have a lot of momentum.
The large block has more mass than the small one. Same principle with rocks.
Schrödinger's equations, I believe
The physical size is unimportant - you can have a huge object that weighs less than a small one. The heavier the object is - the greater the friction.
Turning force (Moment) measured in Newton metres is equal to Force (Newtons) multiplied by Distance (metres).Or to put it mathematically: Moment (Nm) = Force (N) x Distance (m)The larger the distance the greater the moment.The greater the force the greater the moment.The greater the distance the smaller the force needs to be.This means that a long screwdriver will prise open a paint can lid much easier than a coin will. This also means that a longer spanner will unscrew a nut easier than a small one (or indeed your hands).
Momentum is a function of velocity and mass, therefore, assuming a "large" bus has more mass than a "small" car the bus would have more momentum since the velocities are the same.
Momentum
The object will move if the net force amounts to a greater momentum than the force that is keeping that object at rest.
Momentum = Mass x Velocity (p=mv)Of course an object at rest would have no momentum no matter what the mass is (velocity = 0 so momentum = 0).Playing volleyball with a balloon might be something that would be considered low momentum. You can hit it as hard as you like, but it has so little mass that its momentum can hardly overcome the air resistance.You might push a small car at, say 1/4 MPH, and it would have relatively little momentum.However a train traveling at the same 1/4 MPH would still have a lot of momentum.
The larger the momentum, the harder it will be to stop it. Thus, the larger the force needed to decelarate the object. Since momentum is directly proportional to the velocity, the larger the momentum, the larger the velocity.
a small mass moving slowly
Momentum is speed or force of movement and it is defined as moving body. Momentum must have both mass and velocity. Examples of momentum include if a car and big truck are rolling down a hill, the truck will roll faster. A bullet has a lot of momentum with a small mass.
a small mass moving slowly
That would depend on what you consider "large".The size of an object's momentum = (its mass) x (its speed).So, more mass and more speed result in more momentum.
This is not a reference to momentum in the sense of physics - rather in the sense of psychology. In physics, a body with a lot of momentum has a lot of inertia and this allows it to overcome small obstacles without stopping. Similarly, a team that has been performing well gains a lot of confidence which may allow it to overcome small glitches in its performance. In that sense the team has got a momentum.Conversely, after a series of poor performances, the team is said to have lost momentum - even a small upset is enough to stop its progress.
small intestine
Yes. (By going faster.)