the gravitational attraction would increase, because the more mass something has the more gravitational pull it has.
Yes, the distance between objects does affect the gravitational attraction between them. According to Newton's law of universal gravitation, the force of gravity decreases as the distance between two objects increases. This means that objects that are closer together will experience a stronger gravitational force than objects that are farther apart.
This is false. The answer is that mass and distance affect the gravitational attraction between objects. Air resistance has no effect on this.
If you increase the mass, you increase the gravitational force proportionally. If you increase the distance between two masses, you decrease the gravitational force between them by and amount proportional to the square of the distance.
Gravity has no effect on mass, and mass has no effect on gravity. The characteristic behavior of gravity is that the force between two masses is directly proportional to the product of the masses, so if one or both masses were to increase, the mutual gravitational forces between them would increase in proportion to the increase in the product. That happens regardless of what the starting or ending mass happens to be, because mass has no effect on gravity.
The primary observed effect of the mutual force of gravitational attraction is the fact that whenever my bathroom scaleis on the earth and I step on it, the display changes to astronomical numbers that are in line with the predictions ofNewton's Laws but which still have no connection with reality.
If there is more mass, there will be more gravitational attraction.
As you move two objects away from each other their gravitational attraction gets weaker. Kind of like the bluetooth on phones :D
Yes, the distance between objects does affect the gravitational attraction between them. According to Newton's law of universal gravitation, the force of gravity decreases as the distance between two objects increases. This means that objects that are closer together will experience a stronger gravitational force than objects that are farther apart.
If the objects are not tied together, and if the gravitational forces between them are negligible in their current environment, then the distance between them has no effect whatsoever on their motion.
This is false. The answer is that mass and distance affect the gravitational attraction between objects. Air resistance has no effect on this.
the force will remain the p
If the distance between the star and the planet were 3 times as great, their gravitational attraction for each other would decrease by a factor of 9 (3 squared). The force of gravity between two objects is inversely proportional to the square of the distance between their centers.
Gravity doesn't care what, if anything, is in the space between the objects. Whatever it is has no effect on the mutual gravitational forces of attraction between them. There's no such thing as "gravitational shielding".
Doubling the mass of the star would increase the gravitational attraction between the star and its planet. The force of gravity is directly proportional to the product of their masses, so doubling the mass of the star would double the gravitational force between them.
Double the mass means double the attraction in this case.Double the mass means double the attraction in this case.Double the mass means double the attraction in this case.Double the mass means double the attraction in this case.
Massive means there is a lot of mass - and gravitational attraction depends on the amount of mass. The amount of gravitational attraction also depends on the distance - i.e., the effect will be less at larger distances. The gravitational attraction between galaxies is strong enough to make galaxies in a galaxy cluster stay together - for example, in our Local Group.
If the distance between the star and planet were 3 times greater, the gravitational attraction between them would be inversely proportional to the square of the new distance. This means the gravitational force would be 1/9th of what it was originally. Gravity follows an inverse square law, so as the distance increases, the gravitational force decreases rapidly.