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Why do dropped objects of different masses reach the ground at the same time in air?
Dropped objects of different masses reach the ground at the same time in air because the force of gravity accelerates all objects equally, regardless of their mass. This is known as the principle of the equivalence of gravitational and inertial mass, as described by Galileo. Thus, in the absence of air resistance, objects of different masses will fall at the same rate.
What happens different mass fall from same height?
Objects with different masses will fall to the ground at the same rate in the absence of air resistance, due to gravity being a constant force regardless of mass. However, objects with different masses will experience different forces due to inertia, momentum, and friction when they reach the ground.
What force is responsible for falling objects?
Gravity is the force responsible for the motion of falling objects. All objects are attracted towards the center of the Earth by the force of gravity, causing them to accelerate towards the ground until they reach equilibrium or hit the ground.
How do meteorites differ from asteroids?
Asteroids are objects smaller then planets that orbit the Sun. Meteorites are (usually) smaller objects that enter the atmosphere and reach the ground.
Why do balls of different masses dropped simultaneously from the same height?
Objects of different masses will reach the ground at the same time when dropped from the same height because they are subject to gravity, which accelerates all objects at the same rate regardless of their mass. This is known as the equivalence principle and was famously demonstrated by Galileo.
How do you make objects of different masses to reach the ground at the same time?
You must let the lighter one go first then let the heavier one go. The heavier should then catch up.
Why do two objects of different mass land at the same time?
Two objects of different masses land at the same time in a vacuum because gravity affects all objects equally regardless of their mass. The acceleration due to gravity is the same for both objects, causing them to fall at the same rate and reach the ground simultaneously. This concept is famously demonstrated by Galileo's experiment at the Leaning Tower of Pisa.
Which is faster to reach ground feather or ball in free fall?
Both the feather and the ball will reach the ground at the same time in a vacuum due to the acceleration due to gravity being constant for all objects. However, in the presence of air resistance, the feather will take longer to reach the ground compared to the ball due to its larger surface area and lighter weight.
Would a crumple paper ball or rectangular shape paper reach the ground?
Both the crumpled paper ball and the rectangular shape paper would reach the ground at the same time when dropped from the same height in a vacuum. This is because in the absence of air resistance, all objects fall at the same rate due to gravity.
What are some results about big and small objects and which reaches the ground first?
In free fall an object regardless of its mass will accelerate at 9.8 meters/second/second or 32 feet/second/second assuming that you are on earth in a frictionless environment. This means that any two objects regardless of their mass will fall to the ground at the same rate.
Do all objects not aided by the air fall to the ground at the same speed?
Yes all objects fall at the same speed but there are objects that are aided by the air that don't fall to the ground at the same speed. For example, a feather and a brick. A feather is a object that is aided by air. A brick is a object that wind cannot blow away. If I drop both of them down with the same time down a 100 feet building, then definitely the brick will totally reach the ground first ............ well and it will get crushed into pieces while the feather might be blown away into a different place and reach the ground last.:) :):):):):):):):):)
What does gravity do to objects that fall toward earth?
Gravity pulls objects toward the center of the Earth, causing them to accelerate as they fall. This acceleration increases their speed until they reach the ground or another surface.
