At theheight where it starts, just before it's dropped, the ball has
some potential energy. The higher that spot is, the more potential
energy the ball has. After the drop, whenever the ball is lower than
the height from which it was dropped, it has less potential energy, and
the missing potential energy shows up as kinetic energy ... motion.
This is the whole idea of the roller coaster. A machine drags it up to
the top of the first hill, giving it lots of potential energy. After that, as
long as it doesn't try to rise higher than the first hill, it never runs out
of energy, and keeps going.
A). and B).
The ball keeps going forward until it rises again to the same height it
was dropped from ... on the other side. Then it stops and falls back.
C). The ball can never rise higher than the height it was dropped from.
If the hump in the middle is the same height as the drop-height, then
the ball stops right there, and falls back.
D). Same as B). As long as the track inside the loop is never higher
than the droop-height, the ball just keeps going forward.
E). Same idea. Here it looks like the drop-height is the same as the
top of the loop. The ball can't rise higher than it was dropped from,
so it gets as far as the top of the loop and stops there. From there,
I think it drops straight down from the top of the loop, instead of
following the curve.
Answer:
False. It is propelled but projectile is a specific term denoting air friction only after release of energy.
Answer:uranus
Explanation:it sounds weird
I think it's A electrical impulses from the ear
Answer:
A. Object A requires twice the force to stop as Object B.
Explanation:
Inertia can be defined as the tendency of an object or a body to continue in its state of motion or remain at rest unless acted upon by an external force.
Newton's Second Law of Motion states that the acceleration of a physical object is directly proportional to the net force acting on the physical object and inversely proportional to its mass.
Mathematically, it is given by the formula;
<em>Let's assume the following values;</em>
Mass of object B = 10 kg
Mass of object A = 2 * B = 2 * 10 = 20 kg
Acceleration = 5 m/s²
I. To find the force for B;
<em>Force B = 50 Newton</em>
II. To find the force for A;
<em>Force A = 100 Newton</em>
From the calculation, we can deduce that Force A (100 N) is twice or double the value of Force B (50 N).
<em>In conclusion, since object A has twice the mass of object B and both objects are moving at the same speed, object A would require twice the force to stop as Object B.</em>
