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What is the answer to this Freely falling bodies undergo what acceleration?
Freely falling bodies undergo acceleration due to gravity, which is approximately 9.81 m/s^2 on Earth. This acceleration causes the speed of the falling object to increase as it falls towards the ground.
What is the conclusion of freely falling bodies?
The conclusion of freely falling bodies is that all objects fall towards the Earth at the same rate of acceleration, regardless of their mass. This acceleration is approximately 9.81 m/s^2 and is known as the acceleration due to gravity.
What is the effect of the mass of freely falling body on gravitational acceleration?
No effect whatsoever. Any two freely falling bodies fall with the same acceleration when dropped in the same place on the same planet. That includes any two objects falling on Earth. Someone is sure to jump in here and point out that objects with different mass don't fall with equal accelerations on Earth, and that's because of air resistance. They may even go on to provide answers to other questions that were not asked, such as a treatise on terminal velocity. All of that is true, even if confusing. This question stipulated that the bodies in question are "freely fallling". Bodies that are falling through air are not freely falling.
Problems and solution of freely falling bodies?
Some problems with freely falling bodies include air resistance affecting the acceleration and different initial conditions of objects leading to varied outcomes. Solutions can involve ignoring air resistance for simplicity or accounting for it in calculations, as well as using proper equations to calculate the motion accurately based on the initial conditions provided.
What are the examples of free falling body?
A freely falling body, as the name implies, is not hindered in its fall. "Not hindered" is to be understood as not appreciatively hindered for the purposes of describing its motion with a simple equation. A relatively heavy object near the Earth is not hinder for a short trajectory of a few meters. Then, a simple rock or ball or anything, even a person, will move in a straight line or in an arc that is well approximated by a parabola. (The actual path of a freely moving object will be an ellipse, but the short portion you see in a trajectory near Earth is indistinguishable from a parabola.) If you want a purer form of the freely falling object, the best examples are bodies outside the Earth's atmosphere, for example, satellites that go around the Earth. These circular orbits are simplified versions of an ellipse. For extra credit, explain how a geostationary satellite, which appears to remain at the same point in the sky above the equator, is actually moving in an ellipse.
Where does the law of gravity operate?
Freely falling bodies
What are the factors affecting freely falling bodies?
force and gravity
What is the effect of distance of freely falling bodies from the centre of the earth on gravitational acceleration?
a nswer
What is the answer to this Freely falling bodies undergo what acceleration?
Freely falling bodies undergo acceleration due to gravity, which is approximately 9.81 m/s^2 on Earth. This acceleration causes the speed of the falling object to increase as it falls towards the ground.
What is the conclusion of freely falling bodies?
The conclusion of freely falling bodies is that all objects fall towards the Earth at the same rate of acceleration, regardless of their mass. This acceleration is approximately 9.81 m/s^2 and is known as the acceleration due to gravity.
What is the effect of the mass of freely falling body on gravitational acceleration?
No effect whatsoever. Any two freely falling bodies fall with the same acceleration when dropped in the same place on the same planet. That includes any two objects falling on Earth. Someone is sure to jump in here and point out that objects with different mass don't fall with equal accelerations on Earth, and that's because of air resistance. They may even go on to provide answers to other questions that were not asked, such as a treatise on terminal velocity. All of that is true, even if confusing. This question stipulated that the bodies in question are "freely fallling". Bodies that are falling through air are not freely falling.
Examples of acceleration motion?
A freely falling body Planet going around the sun electron going around the nucleus
Problems and solution of freely falling bodies?
Some problems with freely falling bodies include air resistance affecting the acceleration and different initial conditions of objects leading to varied outcomes. Solutions can involve ignoring air resistance for simplicity or accounting for it in calculations, as well as using proper equations to calculate the motion accurately based on the initial conditions provided.
Define free falling bodies?
free falling bodies
What are the examples of free falling body?
A freely falling body, as the name implies, is not hindered in its fall. "Not hindered" is to be understood as not appreciatively hindered for the purposes of describing its motion with a simple equation. A relatively heavy object near the Earth is not hinder for a short trajectory of a few meters. Then, a simple rock or ball or anything, even a person, will move in a straight line or in an arc that is well approximated by a parabola. (The actual path of a freely moving object will be an ellipse, but the short portion you see in a trajectory near Earth is indistinguishable from a parabola.) If you want a purer form of the freely falling object, the best examples are bodies outside the Earth's atmosphere, for example, satellites that go around the Earth. These circular orbits are simplified versions of an ellipse. For extra credit, explain how a geostationary satellite, which appears to remain at the same point in the sky above the equator, is actually moving in an ellipse.
Why the velocities of falling bodies are not proportional to their weights?
Why the velocities of falling bodies are not proportional to their weights?
What is freely body?
A freely body is the body which is freely falling under the force of gravity i.e. an acceleration of 9.8 m/s2
