A coin will typically fall faster than a crumpled paper due to its greater density and streamlined shape. The higher air resistance faced by the paper slows down its fall compared to the denser and more compact coin.
A sheet of paper falls slower than a coin in air due to differences in air resistance. The paper has a larger surface area compared to the coin, leading to more air resistance acting against its fall. This increased air resistance slows down the paper's fall compared to the coin.
A crumpled piece of paper falls faster than an uncrumpled paper due to its shape. The crumpled paper has more air resistance, meaning it will accelerate faster towards the ground compared to the flat paper. The crumpled paper falls in a more streamlined and compact manner, reducing air resistance and allowing it to fall faster.
A coin falls faster than a feather because of a difference in their air resistance. The feather experiences more air resistance due to its larger surface area compared to the coin, causing it to fall slower. The coin's smaller surface area allows it to overcome air resistance more easily and fall at a faster rate.
A crushed paper falls faster than a plain paper because the crushed paper has less air resistance due to its folded and crumpled shape. This reduces the surface area exposed to air resistance, allowing it to fall more quickly.
A coin will typically fall faster than a crumpled paper due to its greater density and streamlined shape. The higher air resistance faced by the paper slows down its fall compared to the denser and more compact coin.
A sheet of paper falls slower than a coin in air due to differences in air resistance. The paper has a larger surface area compared to the coin, leading to more air resistance acting against its fall. This increased air resistance slows down the paper's fall compared to the coin.
A crumpled piece of paper falls faster than an uncrumpled paper due to its shape. The crumpled paper has more air resistance, meaning it will accelerate faster towards the ground compared to the flat paper. The crumpled paper falls in a more streamlined and compact manner, reducing air resistance and allowing it to fall faster.
A coin falls faster than a feather because of a difference in their air resistance. The feather experiences more air resistance due to its larger surface area compared to the coin, causing it to fall slower. The coin's smaller surface area allows it to overcome air resistance more easily and fall at a faster rate.
A crushed paper falls faster than a plain paper because the crushed paper has less air resistance due to its folded and crumpled shape. This reduces the surface area exposed to air resistance, allowing it to fall more quickly.
In a vacuum, there is no drag, i.e. air resistance, so the coin and the piece of paper will fall the same way in a vacuum, whereas in air, the paper will flutter down while the coin will have minimal impediment due to its drag coefficient being far less than that of paper.
Crumpled paper falls faster than straight paper due to its increased aerodynamic drag caused by its irregular shape. The turbulent airflow around the crumpled paper creates more resistance, resulting in a faster descent compared to the smoother, more streamlined straight paper.
Faster than on Earth? The reason it falls slowly on Earth is because of air resistance. You can also make it fall quickly on Earth if you make it fall within a vacuum chamber.
In a vacuum, both paper and cloth would fall at the same rate due to gravity. However, in normal atmospheric conditions, paper may fall faster than cloth due to its lower air resistance and lighter weight.
A crumpled paper falls faster than an uncrumpled paper due to the increased air resistance and drag acting on the flat surface of the uncrumpled paper. The crumpled paper has a smaller surface area exposed to the air, which reduces air resistance, allowing it to fall faster.
A paper clip will likely fall faster in the air due to its higher density compared to a rubber ball. Density affects the rate at which objects fall through the air, with denser objects falling faster than less dense objects.
A sandbag falls faster than a sheet of paper due to differences in mass and air resistance. The sandbag has more mass, so gravity pulls it down with greater force, while the larger surface area of the sheet of paper creates more air resistance, slowing its fall.