Each bounce has its own impulse. As the ball bounces, and passes through air, there is air friction and some energy is lost as heat and sound to the air, and transferred to the ground also. As this happens, the speed of the ball is lowered, meaning that according to p=mv, there will be less impulse for each consecutive bounce.
When the ball bounces, the positive velocity (towards the ground) would be negated from the negative velocity to give delta v, the combined velocity.
From there, you would multiply that by the mass of the object, divide that total by time.
I think P=F=mv/t (all delta variables) where p is the impulse, F is the force, m is the mass, v is the velocity (the combined total of v1-v2, or what ever gives the highest number) and t is the time required for the ball to stop.
Hope that answers your question.
because when it is bouncing, has more momentum than when it doesn't
Because of the extra impulse required to send the ball on its way.
What happens when an impulse acts on an object? Impulse is defined as force acting on an object for a specific time. Impulse = Force * time If you push on a object for a specific time, the object's velocity will change. Equation = F* t = mass * ∆ v This equation is derived from F = m* a, a = ∆v ÷ t
Yes, it does. Assuming a constant force, the impulse is equal to the force multiplied by the time the force acts. (If it isn't constant, you will of course use an integral instead.)
Bouncing can tear muscle fibers
because when it is bouncing, has more momentum than when it doesn't
No, but it might have an effect of bringing them into your body more.
Ether blocked the impulse transmission.
true
false
Because of the extra impulse required to send the ball on its way.
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alcohol is a depressant, which affects mood, and a drug that affects impulse control and inhibitions.
impulse is impulse
The bouncing of light is the reflecting.
Impulse = mv Impulse = Fmv
when the nerve was reversed in position, was the impulse conducted in the opposite direction