Yes, due to friction, but nothing else.
No, rough objects and smooth objects fall at the same rate in a vacuum due to gravity acting on them equally. In the presence of air resistance, rough objects may experience a slightly slower acceleration due to increased drag.
Heavier objects have greater gravitational force pulling them downward, which increases the air resistance force acting against the object, slowing down its fall. This results in a slower descent for heavier objects when a parachute is deployed.
In a vacuum, objects of different sizes fall at the same rate because they experience the same acceleration due to gravity. However, in the presence of air resistance, objects with larger surface areas experience more air resistance and fall slower than objects with smaller surface areas.
In a vacuum, all objects fall at the same rate regardless of mass due to gravity. This is known as the equivalence principle. However, in environments with air resistance, lighter objects may experience more air resistance and fall slower compared to heavier objects due to their surface area-to-mass ratio.
Lighter objects fall slower than heavier objects because they have less mass, which results in less gravitational force acting on them. This means they experience less acceleration and take longer to reach the ground compared to heavier objects. The acceleration due to gravity is the same for both objects, but the heavier object requires more force to overcome its weight and accelerate at the same rate.
No, rough objects and smooth objects fall at the same rate in a vacuum due to gravity acting on them equally. In the presence of air resistance, rough objects may experience a slightly slower acceleration due to increased drag.
Heavier objects have greater gravitational force pulling them downward, which increases the air resistance force acting against the object, slowing down its fall. This results in a slower descent for heavier objects when a parachute is deployed.
surface area which causes more resistance (assuming object is falling in non- vacuum)
In a vacuum, objects of different sizes fall at the same rate because they experience the same acceleration due to gravity. However, in the presence of air resistance, objects with larger surface areas experience more air resistance and fall slower than objects with smaller surface areas.
In a vacuum. like in outer space, all substances fall at the same rate. Here on earth, the rate of falling is influenced by air resistance. A feather has 'way more air resistance than a ball of steel, for example, so falls slower.
In a vacuum, all objects fall at the same rate regardless of mass due to gravity. This is known as the equivalence principle. However, in environments with air resistance, lighter objects may experience more air resistance and fall slower compared to heavier objects due to their surface area-to-mass ratio.
Lighter objects fall slower than heavier objects because they have less mass, which results in less gravitational force acting on them. This means they experience less acceleration and take longer to reach the ground compared to heavier objects. The acceleration due to gravity is the same for both objects, but the heavier object requires more force to overcome its weight and accelerate at the same rate.
Without air resistance, heavier and lighter object fall at the same speed. More precisely, they accelerate at the same speed - near Earth's surface that would be 9.8 meters/second2. If air resistance is significant, heavier objects tend to have less air resistance, compared to their weight, so they will usually fall faster.
-- Because that's the way gravity behaves. -- Because is would be ridiculous to think that heavy objects fall faster. Here's why: ==> Let's say that heavy objects fall faster and light objects fall slower. ==> Take a piece of sticky tape and stick a light object onto the back of a heavy object. Then drop them together off of a roof. ==> The light object tries to fall slower and holds back, and the heavy object tries to fall faster and pulls forward. So when they're stuck together, they fall at some in-between speed. ==> But wait! When they're stuck together they weigh more than the heavy object alone. So how can a stuck-together object that's heavier than the heavy object alone fall at a speed that's slower than the heavy object alone ? ! ? Isn't that ridiculous ? There's no way that heavy objects can fall faster than light objects.
In a vacuum or frictionless environment, all objects, regardless of weight, will fall at the same rate due to gravity. This is described by the principle of equivalence, where the acceleration of an object due to gravity is independent of its mass. However, in real-world scenarios with air resistance, lighter objects may experience more air resistance and fall slower than heavier objects.
Air resistance can be proved by dropping objects of different masses and sizes from a height at the same time. Heavier objects fall faster due to gravity, but lighter objects experience more air resistance, causing them to fall slower. This difference in falling speed demonstrates that air exerts resistance on objects moving through it.
In a vacuum, all objects fall at the same rate regardless of their weight due to gravity. However, in real-world conditions with air resistance, lighter objects tend to fall slower than heavier objects because air resistance affects lighter objects more.