The gravitational force between two objects is proportional to the PRODUCT of the two masses.
So for the same distance between the pair, two small masses would attract each other with much less force
than would two large masses, and with less force than one small mass and one large mass would.
Fg=Gm1m2
--------
r2
Where G is the gravitational constant of any mass, or 6.67259*10-11 Nm2/kg2 and r is the distance between the center of masses of the two objects
Therefore, the magnitude of the force increases as the masses increase
The force is proportional to the masses so the larger the masses the larger the force of attraction. Example, suppose you had two masses and the force is "F". If you double one of the masses the force that either mass attracts the other with will be "2F" . If you double both masses the force will be "4F" , etc. Also, through Newton's Law of Gravitation, Fg=(GM1M2)/R2 (Fg - force of gravity G - Gravitational Constant of 6.67x10-11Nm2/kg2 M1 and 2 - the masses of the objects R - radius between their centers) we know that if you halve the masses (assuming they're equal), then the force of gravity on them decreases to a quarter of the original.
The equation for the gravitational force between two objects is Fg=Gm1m2/r2, where G is the gravitational constant (G=6.673*10-11N*m2/kg2), m1 and m2 are the masses of the two object's between which you are measuring the gravitational force and r is the distance between the centers of the two masses. Using this equation, the gravitational force acting between the two objects will be proportional to the mass of the objects (if the masses are increased, the force increases as well).
Objects of greater mass have more gravitational pull.
Yes.
Yes
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The earth's constant orbit around the sun is caused by an equilibrium between two forces - the gravitational pull of the sun, and the earth's velocity acting at a right angle to it. If that gravitational pull was suddenly eliminated, the earth would continue onwards in a straight line.
The gravitational attraction from the Earth.The gravitational attraction from the Earth.The gravitational attraction from the Earth.The gravitational attraction from the Earth.
it is lighter or heavier
Nothing happens to gravity. It always works according to the same exact formula,regardless of how far apart or close together the objects are.According to that formula, we can see that when the objects are closer together,the gravitational force between them becomes greater.
The masses of the two objects and the distance between the two objects affect the gravitational force between them.
Your weight. Weight is the definition of the force between the earth and other objects. Thus you weight is the gravitational force acting on you from the earth.
The masses of the objects involved, and the distance between their centres in metres.
The mass of the object that is exerting the force and the distance between the two objects.
Gravitational pull still acts in space, but when you are in space, you are too far from the earth to feel any of its gravitational force. Gravitational force between two objects depends on their distance from each other and the further two objects are apart, the weaker the force of gravity is. So when we are in space, the earth's gravitational pull is still acting on us, but it is too far away for us to feel it.
Due to the earth's mass, gravitational force happens strongly between you and the earth. That is how weight is formed. Remember that two objects have gravitational force between each other, and the closer the distance, the stronger the gravitational force. The bigger the mass, the stronger the gravitational force as well. Since the earth is so huge in size and mass, you have a strong gravitational force acting on you known as weight.
AnswerWeight is defined as the result of the gravitational force acting on an objects mass. In other words, there is an attractive force between the Earth an another object. The large the mass of the object the greater it's weight. This is because gravitational force increases when mass increases.
gravity
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Yes. The definition of "free fall" implies that gravity from Earth - or perhaps from different objects - is acting on the body.
The force of gravity is directly related to the masses of the two objects it acts between, and inversely related to the square of the distances between them. The equation is F=-G*m1*m2/r2 On Earth, we know the mass of one of the objects (the Earth) and can approximate the distance between the two objects (the radius of the earth), so this equation simplifies to F=mgh, and only depends on the mass of the object that the Earth's gravitational field is acting on and the height of the object above the earth. Little g is a constant equal to about 9.8 m/s2.
nuclear force,gravitational force,magnetic force and adhesive and cohesive force