Assuming by "the force acting on an object" you mean the cause of its acceleration, its acceleration will be doubled. If there is more than one force acting on it, the vector of the force will have to be analyzed by its effect on each of the other forces.
Well, if you're going by the equation F=ma where F is the force, m is the mass, and a is the acceleration, the acceleration stays the same since the ratio in the equation balances out to 1:1.
If the mass of one of a pair of objects is doubled, while the distance between them remains
unchanged, then the mutual attractive force between them due to gravitation is also doubled.
a/t newton's 3rd law,there for when the mass of a object wl increase it's attractive force wl increase and another object wl also oppose that force in same magnitude
If one object doubles, the gravitational force also doubles. Gravity and mass are directly proportional.
Its energy is doubled.
If the mass of both of the objects is doubled, then the force of gravity between them is quadrupled; and so on. Since gravitational force is inversely proportional to the square of the separation distance between the two interacting objects, more separation distance will result in weaker gravitational forces.
If the masses do not change, but the objects are moved farther apart, the gravitational force becomes weaker, due to the distance between the objects.
Because of the inverse-square law, doubling the distance will change the gravitational force by a factor of 1/4 (calculated as 1 divided by 2 squared).
Answer The Universal Law of Gravitation states the gravitational force between any two objects of mass can be calculated with the equation F=G*(m_1*m_2)/r^2. As a result, increasing the mass of one or both objects increases the gravitational force. Increasing the distance between the two objects decreases the gravitational force. Notice the distance between them is squared so if you keep the masses the same and double the distance between them the gravitational force will decrease by four times.
Nothing. The mass will not change with a gravitational increase, but the weight will.
If the mass of both of the objects is doubled, then the force of gravity between them is quadrupled; and so on. Since gravitational force is inversely proportional to the square of the separation distance between the two interacting objects, more separation distance will result in weaker gravitational forces.
distance
1,000 newtons, provided the distance between them didn't change.
It increases
The gravitational forces between two objects are proportional to the productof the two masses. So if either mass decreases and the distance between theobjects doesn't change then the gravitational forces between them also decrease.
If the masses do not change, but the objects are moved farther apart, the gravitational force becomes weaker, due to the distance between the objects.
If the magnitude of each of two charges is doubled, then the direction of the force between them doesn't change, but its magnitude increases by a factor of 4.
Because of the inverse-square law, doubling the distance will change the gravitational force by a factor of 1/4 (calculated as 1 divided by 2 squared).
The Gravity would Double.
Answer The Universal Law of Gravitation states the gravitational force between any two objects of mass can be calculated with the equation F=G*(m_1*m_2)/r^2. As a result, increasing the mass of one or both objects increases the gravitational force. Increasing the distance between the two objects decreases the gravitational force. Notice the distance between them is squared so if you keep the masses the same and double the distance between them the gravitational force will decrease by four times.
The gravitational pull of an object in relation to its distance from another object is an inverse square law. When the distance between two objects is doubled, their pulled on each other is quartered. G ∝ 1/r2 where G is the gravitational pull and r is the separation.
Nothing. The mass will not change with a gravitational increase, but the weight will.