Yes, both the flat sheet of paper and the crumpled ball of paper will accelerate at the same rate when dropped from a height of 2 m. This is because acceleration due to gravity is constant regardless of the shape or size of the object. The air resistance may have a small effect, but in this scenario, the difference is negligible.
In a vacuum, yes, look up the video on youtube of dropping a feather and hammer on the moon. However, on earth, that is not the case, due to air resistance. The flat paper has more surface area for the air to push back up on, and therefore slows it down more
The acceleration due to gravity is constant for all objects near the Earth's surface, regardless of their mass or size. This means that a heavier rock and a lighter piece of crumbled paper will fall and land at the same time when dropped from the same height.
Yes, both the flat sheet of paper and the crumpled paper ball will accelerate at the same rate due to gravity, regardless of their shapes. The acceleration due to gravity is a constant value for all objects near the surface of Earth.
-- If they're dropped in a place where there is air, then that could be accomplished byeither dropping the paper some time before the book, or from a height much lower thanthe height from which the book is dropped.-- If they're dropped in a place where there is noair, then all you have to do is dropthem at the same time from the same height. Without air, they fall together, and reachthe bottom at the same time.
When a paper is crumbled, the air resistance it experiences increases due to the irregular shape, causing it to fall more slowly than a flat piece of paper. The increased air resistance creates more drag, slowing down the crumpled paper's descent compared to when it's flat.
In a vacuum, yes, look up the video on youtube of dropping a feather and hammer on the moon. However, on earth, that is not the case, due to air resistance. The flat paper has more surface area for the air to push back up on, and therefore slows it down more
The acceleration due to gravity is constant for all objects near the Earth's surface, regardless of their mass or size. This means that a heavier rock and a lighter piece of crumbled paper will fall and land at the same time when dropped from the same height.
Yes, both the flat sheet of paper and the crumpled paper ball will accelerate at the same rate due to gravity, regardless of their shapes. The acceleration due to gravity is a constant value for all objects near the surface of Earth.
Between rock and paper, paper is lighter. However if dropped from same height they do fall at the same speed.
crumbled
The crumbled. It's more like a ball, unlike the 2D paper. And since you can't keep the paper completely folded, It might as well be in 2nd place.
Yes, crumbled paper does have more surface area compared to a flat sheet of paper. When paper is crumpled, its fibers are compressed and folded, creating additional surfaces and crevices. This increased surface area can enhance interactions with other substances, such as ink or adhesive, making crumbled paper more effective for certain applications like art or insulation.
-- If they're dropped in a place where there is air, then that could be accomplished byeither dropping the paper some time before the book, or from a height much lower thanthe height from which the book is dropped.-- If they're dropped in a place where there is noair, then all you have to do is dropthem at the same time from the same height. Without air, they fall together, and reachthe bottom at the same time.
The prepositional phrase in the sentence is "under the desk." It provides information about where Alan dropped the paper.
When a paper is crumbled, the air resistance it experiences increases due to the irregular shape, causing it to fall more slowly than a flat piece of paper. The increased air resistance creates more drag, slowing down the crumpled paper's descent compared to when it's flat.
Because a flat piece of paper has a larger surface area and therefore more wind resistance. But in a crumbled piece of paper the wind resistance is less.
The height of a piece of paper folded in half once is half of its original height.