In a vacuum, a feather and a piece of paper would fall at the same rate due to gravity. However, in Earth's atmosphere, the feather would fall more slowly due to air resistance.
A crumpled piece of paper has a larger surface area, which increases air resistance and slows down its fall. The increased air resistance counteracts the force of gravity acting on the paper, causing it to fall slower than a flat piece of paper, which has less air resistance due to its smaller surface area.
A crumpled piece of paper has irregular shapes and edges that can create turbulence or air resistance, slowing down its fall and causing it to land first compared to a flat piece of paper that falls more uniformly without as much resistance. The crumpled paper also experiences changes in its center of mass as it falls, affecting its trajectory.
In a vacuum, both a ball and a piece of paper will fall at the same rate and hit the ground at the same time because they are subject to the same gravitational acceleration. However, in reality, the paper may experience more air resistance and fall more slowly than the ball.
False. Both a crumpled piece of paper and a flat piece of paper fall at the same rate due to gravity acting on them. The shape of the paper does not affect the rate at which it falls.
In a vacuum, a feather and a piece of paper would fall at the same rate due to gravity. However, in Earth's atmosphere, the feather would fall more slowly due to air resistance.
pretty much the same
A crumpled piece of paper has a larger surface area, which increases air resistance and slows down its fall. The increased air resistance counteracts the force of gravity acting on the paper, causing it to fall slower than a flat piece of paper, which has less air resistance due to its smaller surface area.
A crumpled piece of paper has irregular shapes and edges that can create turbulence or air resistance, slowing down its fall and causing it to land first compared to a flat piece of paper that falls more uniformly without as much resistance. The crumpled paper also experiences changes in its center of mass as it falls, affecting its trajectory.
they will all fall
In a vacuum, both a ball and a piece of paper will fall at the same rate and hit the ground at the same time because they are subject to the same gravitational acceleration. However, in reality, the paper may experience more air resistance and fall more slowly than the ball.
The opened piece of paper has more air resistance which slows it down. This is basically the same principle as a parachute being opened vs. unopened. Air resistance causes drag.
False. Both a crumpled piece of paper and a flat piece of paper fall at the same rate due to gravity acting on them. The shape of the paper does not affect the rate at which it falls.
Robert boyle conducted an experiment using a bullet and a feather inside a vacuum container it proved gallileos theory that everything drops at the same speed
When a piece of paper is rolled up, it creates more air resistance due to its irregular shape compared to when it's flat. The increased air resistance slows down the fall of the rolled up paper compared to the flat paper.
Crumple the paper into a tight ball before dropping it. The increased surface area and air resistance of a flat sheet of paper slowed its fall, and crumpling it reduces both, allowing it to fall quicker.
Because there is less surface area on the crumbled piece of paper, there is less area upon which the force of friction (air resistance) may act. There is more surface area on the normal piece of paper, which allows friction to act over a greater area on the paper. More air resistance causes the flat piece to fall slower.