answersLogoWhite

0

On or near the surface of the earth, the acceleration of gravity

is 9.8 meters (32.2 feet) per second2 in a vacuum.

On or near the surface of other bodies, it's a different value, because their masses are different.

Acceleration due to gravity is completely independent of the mass of the falling body. Whether the falling body has a large, small, or in-between mass, the acceleration due to gravity is the same number, as long as it stays on the same planet. Any difference is the result of air resistance.

Ans 2

The previous answer is a nice example of a newtonian constant gravity.

Acceleration due to gravity is dependent on the mass and the distance between both bodies, bodies of relatively small mass have a negligible effect on the gravity exerted by large bodies. All bodies with mass have gravity. As the two bodies approach each other gravity increases as a square to their change in distance between their centers. The greater the mass of either body the greater the acceleration. dropping a Bowling ball and a Golf ball from a specific height they will strike the earth at the same time. But the gravity exerted by the sun on Venus is greater than the gravity exerted by the sun on the Earth due to the relative distances between them. The gravity exerted on the Earth by the sun is greater than the gravity exerted by the sun on the moon due to the relative difference in mass of the earth and the moon.

Gravity is proportional to the product of the two masses, and inversely proportional to the square of the distance.

Read more: Does_the_mass_and_gravity_correlate

User Avatar

Wiki User

12y ago

What else can I help you with?

Related Questions

What is equivalent of acceleration due to gravity?

acceleration due to gravity of earth is 9.8ms-2


What is Saturn's value for acceleration due to gravity?

Acceleration due to gravity on Saturn = 11.171 m/s2 (9.807 m/s2 on Earth)


What force that can change when acceleration due to gravity changes?

I suppose you are asking about what forces change when acceleration due to gravity changes. In this case, the formula for forces concerning acceleration due to gravity is as such: fg=mg. When acceleration due to gravity(g) changes, it affects the force of gravity which is also known as the weight of the object. This is shown as fg.


Will acceleration due to gravity change the weight of an object?

No, acceleration due to gravity does not change the weight of an object. Weight is determined by the mass of the object and the acceleration due to gravity in that location. The acceleration due to gravity affects the force with which an object is pulled toward the center of the Earth, leading to its weight.


What is accileration due to gravity on earth?

Acceleration due to gravityThe acceleration produced in the motion of a body under gravity is called Acceleration.


What are the effects of acceleration due to gravity on the time period of a pendulum?

The period of a pendulum (in seconds) is 2(pi)√(L/g), where L is the length and g is the acceleration due to gravity. As acceleration due to gravity increases, the period decreases, so the smaller the acceleration due to gravity, the longer the period of the pendulum.


What is Ganymede's acceleration due to gravity?

Ganymede's acceleration due to gravity is 1.428 m/s².


What is the symbol for acceleration due to gravity?

The symbol for acceleration due to gravity is "g."


What is acceleration due to gravity called?

Acceleration due to gravity means the force due to weight of an object which increases due to the gravitational pull of the earth.


What is the direction of acceleration due to gravity State with reason?

The acceleration between two bodies is always towards the centre of mass of the bodies in question.


What is the acceleration for the pull of gravity?

If you mean acceleration due to gravity it is ~9.8m/s2


What is the acceleration due to gravity problem that needs to be solved in this scenario?

The problem that needs to be solved in this scenario is determining the acceleration due to gravity.