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∙ 13y agoNo. Without any variables like air resistance, two objects of different weights (or mass) will wall at the same speed. The classic example is the Bowling ball and a feather. In a vacuum, both fall at the same speed. In air, the feather encounters more air resistance than the bowling ball and therefore falls slower.
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∙ 13y agoNo, in the absence of air resistance, all objects fall at the same rate regardless of their weight. This is known as the principle of equivalence and was famously demonstrated by Galileo.
The speed of an object in free fall increases due to the acceleration of gravity, which causes the object to fall faster and faster until it reaches terminal velocity, at which point the force of air resistance balances the force of gravity.
No, the increase in weight does not cause an object to fall faster. In a vacuum, objects of different weights fall at the same rate due to gravity. The rate at which an object falls is primarily determined by the force of gravity acting upon it, not its weight.
In the absence of air resistance, all objects fall at the same rate regardless of their mass, as demonstrated by Galileo's experiment on Earth. Therefore, on the moon, an object with more mass would not fall faster than an object with less mass.
Big flat objects like sheets of paper have more surface area relative to their weight compared to smaller objects, creating more air resistance which slows down their fall. This increased air resistance counteracts the force of gravity pulling them downwards, causing them to fall more slowly.
No, a bowling ball does not always fall faster than a feather just because it weighs more. In a vacuum where there is no air resistance, both objects fall at the same rate due to gravity. In the presence of air resistance, the shape and size of the objects will affect how quickly they fall.
Mass does not cause an object to fall faster.
The speed of an object in free fall increases due to the acceleration of gravity, which causes the object to fall faster and faster until it reaches terminal velocity, at which point the force of air resistance balances the force of gravity.
How smaller, how faster the downglide
No, the increase in weight does not cause an object to fall faster. In a vacuum, objects of different weights fall at the same rate due to gravity. The rate at which an object falls is primarily determined by the force of gravity acting upon it, not its weight.
because gravity pulls an object to earth in which body not lose weighs
In the absence of air resistance, all objects fall at the same rate regardless of their mass, as demonstrated by Galileo's experiment on Earth. Therefore, on the moon, an object with more mass would not fall faster than an object with less mass.
It depends on the shape of the object. A spherical object will fall faster than a rectangular object. This is untrue if they are placed in a vacuum.
Big flat objects like sheets of paper have more surface area relative to their weight compared to smaller objects, creating more air resistance which slows down their fall. This increased air resistance counteracts the force of gravity pulling them downwards, causing them to fall more slowly.
No, a bowling ball does not always fall faster than a feather just because it weighs more. In a vacuum where there is no air resistance, both objects fall at the same rate due to gravity. In the presence of air resistance, the shape and size of the objects will affect how quickly they fall.
In free fall, the object accelerates downward at a rate of 9.8 m/s^2 due to gravity. After each second, the object's velocity increases by 9.8 m/s. This means that the object falls faster and faster with each passing second.
Terminal velocity is the constant speed reached by an object in free fall when the force of gravity is balanced by air resistance. At terminal velocity, the net force on the object is zero, causing it to fall at a constant speed without accelerating further.
Large raindrops will fall faster than small raindrops due to their higher mass and greater terminal velocity. The larger raindrops experience less air resistance compared to smaller raindrops of the same shape, allowing them to fall faster towards the ground.