Momentum is always conserved - So, some is transferred to the reactive molecules encountered along the way, some is dissipated by friction, the remainder hits earth and adds it's bit. The momentum spent along the way nevertheless had been added exactly to the earth's total. (Assuming no thingies have been knocked out of orbit by any collision.)
if force increaces and area stays the same then pressure
Work
What was the name of a copyrighted text in 1995.....there's one << OR What happens to space-time when entering a black hole? OR Why can't a charged particle accelerate to the speed of light? OR Why is the speed of light constant?
Newton's Third Law is closely related to Conservation of Momentum. When objects collide, whether the collision is elastic or not, momentum is conserved. (An elastic collision is one in which mechanical energy is conserved. In an elastic collision, after the collision, the objects go away at the same relative speed at which they approached before the collision.)
When two objects collide they can undergo three possible collisions: perfectly inelastic, inelastic, and perfectly elastic. The first type, perfectly inelastic, is when the two objects stick together and become one, like the collusion of two cars and their hoods scrunch up. Perfectly elastic, on the other end of the scale, results in rebound of the two objects without any lost to kinetic energy, these collisions only occur at the atomic level. The third category is everything that lies between the two: inelastic. The objects do rebound to a certain degree, but kinetic energy is not conserved. Thus, the energy of motion must be converted to another type of energy. Thus, when two object collide, the most common forms of energy that kinetic energy is converted to are sound energy and thermal energy. A simple proof of the energy conversion is the simple clapping of hands, if you clap long enough, your hands get warmer, and of course sound is produced.
Momentum increases
It slows down.
If the mass stays the same but the velocity is increased, the momentum of the object will also increase. Momentum is directly proportional to velocity, so an increase in velocity will result in a proportionate increase in momentum.
When two cueballs collide, momentum is conserved. This means that the total momentum before the collision is equal to the total momentum after the collision. The cueballs will transfer momentum between them during the collision, but the overall momentum of the system remains the same.
The momentum stays the same.
When the pursued plane returns the fire, a conservation of momentum in its speed happens. The momentum after the event will be equal to the momentum before the event.
When the pursued plane returns the fire, a conservation of momentum in its speed happens. The momentum after the event will be equal to the momentum before the event.
When the mass decreases, and all other factors remain constant, the momentum of an object will also decrease since momentum is directly proportional to mass. This is because momentum is defined as the product of mass and velocity.
You need to frame your question better. A movinng object will not change momentum unless a force acts upon it. A force could be supplied by many things including a collision, gravity, friction What evr happens, energy will be conserved. If friction through air reduces a body's momentum, then the momentum of the of the body will be transfered to momentum of the air particles (which is ultimately seen as heat, and is infact an increase in speed and hence momentum of the molecules
After the hammer hits the nail, its momentum is transferred to the nail causing it to move. Momentum is conserved in the system, meaning that the total momentum of the hammer and nail before and after the collision remains the same.
The momentum stays the same.
Momentum is mass x velocity. It is not directly related to force.