1000 N as well.
When a ball hits a wall, the force of the ball hitting the wall (impact force) pushes against the wall, while the wall exerts an equal and opposite force back on the ball (reaction force).
When a ball hits a wall, it experiences a force from the wall that causes it to change direction and bounce back. This force is known as the normal force, and it is equal in magnitude and opposite in direction to the force with which the ball hit the wall. This exchange of momentum results in the ball bouncing back.
When a ball hits the ground, the surface applies an upward force on the ball due to the deformation of the ball and the surface. This force causes the ball to bounce back up. The elasticity of the ball also plays a role in how high it bounces.
When the ball hits the floor, it gets deformed, and the force of the ball compressing stores potential energy in the ball. This potential energy is released, causing the ball to bounce back up. This bounce-back force is a combination of the stored potential energy and the elasticity of the ball material.
Because when it falls with a speed of let's say 10 mph, It hits the ground, and upon impact the ground takes the kinetic force/momentum/scientific thingamabob and returns it with the same force, and that causes the ball to bounce back. Like if you hit your head off a wall, it hurts because the wall bounces back the force that you hit your head off with back to your head.
When a ball hits a wall, the force of the ball hitting the wall (impact force) pushes against the wall, while the wall exerts an equal and opposite force back on the ball (reaction force).
When a ball hits a wall, it experiences a force from the wall that causes it to change direction and bounce back. This force is known as the normal force, and it is equal in magnitude and opposite in direction to the force with which the ball hit the wall. This exchange of momentum results in the ball bouncing back.
When a ball hits the ground, the surface applies an upward force on the ball due to the deformation of the ball and the surface. This force causes the ball to bounce back up. The elasticity of the ball also plays a role in how high it bounces.
When the ball hits the floor, it gets deformed, and the force of the ball compressing stores potential energy in the ball. This potential energy is released, causing the ball to bounce back up. This bounce-back force is a combination of the stored potential energy and the elasticity of the ball material.
Because when it falls with a speed of let's say 10 mph, It hits the ground, and upon impact the ground takes the kinetic force/momentum/scientific thingamabob and returns it with the same force, and that causes the ball to bounce back. Like if you hit your head off a wall, it hurts because the wall bounces back the force that you hit your head off with back to your head.
Yes, when the batter hits the baseball with the bat, the ball exerts an equal and opposite force on the bat due to Newton's third law of motion. This means that while the bat exerts a force on the ball to propel it forward, the ball simultaneously exerts an equal force back on the bat. This interaction is crucial in determining the outcome of the hit, including the ball's speed and direction.
Yes, a force is needed to make the golf ball bounce up after it hits the pavement. When the ball makes contact with the ground, the ground exerts an upward force on the ball, causing it to bounce back up. This force is known as the normal force.
The equal action and reaction forces do not cancel each other out when one person hits a ball because they act on different objects. The force exerted by the person hitting the ball causes the ball to accelerate in the direction of the force, while the reaction force from the ball pushes back on the person, causing them to feel the impact of hitting the ball.
If the collision between ball and surface is sufficiently elastic, so that not a lot of energy is dissipated as sound, then the normal force will push the ball back at you. Ultimately, this normal force is caused by the electrostatic repulsion of identically-charged electron clouds in the atoms in the ball and the surface.
Not sure how this is Pokemon related, but oh well. A ball has a certain force going in its certain direction, and when it hits your hand, your hand hits the ball with the same amount of force, but in the opposite direction. When you move your hand back, it acts like a cushion and persay "absorbs" the force of the ball. Much like if you jumped onto your bed. It would hurt if your bed was solid and didn't move at all, but because it springs in when a force lands on it, it feels nicer. Just ask your science teacher or your parents or something.
Elasticity (or reversible deformation). The force expended to accelerate the ball causes it to move into the wall. There, it will come into contact with the wall and will deform. When deformation and reformation have been completed, the ball will be moving away from the wall. The energy exchanges will have balanced and the laws of conservation will have been obeyed. A link is provided to the Wikipedia article on elasticity.
When the ball hits the floor, the ground exerts a force to slow it down to a stop.The top of the ball isn't being pushed by the floor to the same extent, so travels a little bit closer to the floor than it would do if it were just placed on the floor.The ball, now, is squashed very slightly; so to go back to being spherical, it has to extend in the direction is was squashed in. This means it exerts a force both directly up, on the air, and directly down, on the floor.This force makes it jump back up again. The height it jumps back depends on how bouncy the ball is, so how elastic the collision with the floor is.