The sun has the most gravity in the solar system because it has the most mass. Mass has the ability to warp the space around it; the space is bowed out away from the mass and wants to spring back towards the mass. The potential of space pushing back towards the mass creates a force towards the mass. Therefor gravitational pull is more acurately space pushing in toward the mass.
YES:
The moon and sun act together or in opposition to cause the tides that we see. Gravitational attraction of the moon and the sun causes the tides but not how most people think. Most people think that the moons gravitational attraction pulls the water on earth towards the moon thereby causing the tides. But if this were THE reason we have tides then we would only have one high tide per day and as you know we have two, because the moon pulls in different sides of the earth at different times.
The Sun is very massive, and gravity is caused by mass.
We don't know HOW gravity is caused by mass, or what the intermediary particle is; we've nicknamed it the "graviton", as being similar to the "photon", which is a particle of light. But nobody has ever detected a "graviton", or has anything more than some interesting theories about what it is, or how it behaves.
But we CAN calculate the effect of gravity based on the masses of two objects, and the distance between them. We know THAT gravity works; we just don't know HOW.
Yes. There is a mutual force of gravitational attraction between every two masses. Period.
Some examples:
-- between you and the chair you're sitting in
-- between you and the chair across the room
-- between the two chairs
-- between my two dogs
-- between me and the office building I work in, while I'm at work
-- between me and the office building I work in, when I'm at home asleep
-- between every pair of two cars in a NASCAR race
The gravitational force depends on mass and distance. At the Earth's surface the pull on a 1-kg mass is 9.8 Newtons. For any other mass, also at the surface, the pull in Newtons is 9.8 times the mass in kg. At the Moon the Earth's gravity is 0.00028 as much but that is still enough to keep the Moon in its orbit.
Jupiter, because of its mass. But the actual effective gravitational force falls off greatly as you go farther from the planet, so that it only affects smaller objects when they are relatively nearby, like its moons. Otherwise, it exerts the greatest force (co-attraction) on other large planets.
Jupiter, being that largest planet with the highest mass, has the largest gravitational pull of any planet in our solar system. However the planet with the largest gravitational pull known to man outside our solar system is HAT-P-2b in the Hercules constellation, it is 1.8 the size of Jupiter and 8.2 the mass of Jupiter.
Ganymede has the most gravity of any moon in our solar system because it is the largest moon and also has a dense core. Its size and composition contribute to its strong gravitational pull.
The property that determines whether an object is part of the solar system is if it orbits the Sun. Objects within the solar system, like planets, moons, asteroids, and comets, orbit around the Sun due to its gravitational pull. Any object that does not orbit the Sun, such as stars in other solar systems or interstellar objects, would be considered outside the solar system.
The Sun is the largest source of gravity in the solar system. Its mass is far greater than that of any other object, exerting a gravitational pull that keeps all the planets and other objects in orbit around it.
Neither the sun nor the moon are planets. The sun has the strongest gravitational pull of any object in the solar system.
You would weigh the most on Jupiter because it is the largest planet in our solar system and has a very strong gravitational force due to its size and mass. This strong gravitational pull would make you weigh more on Jupiter compared to any other planet in our solar system.
Jupiter, because of its mass. But the actual effective gravitational force falls off greatly as you go farther from the planet, so that it only affects smaller objects when they are relatively nearby, like its moons. Otherwise, it exerts the greatest force (co-attraction) on other large planets.
Jupiter, being that largest planet with the highest mass, has the largest gravitational pull of any planet in our solar system. However the planet with the largest gravitational pull known to man outside our solar system is HAT-P-2b in the Hercules constellation, it is 1.8 the size of Jupiter and 8.2 the mass of Jupiter.
Ganymede has the most gravity of any moon in our solar system because it is the largest moon and also has a dense core. Its size and composition contribute to its strong gravitational pull.
None of the moons in our solar system are known to have a natural satellite of their own. Although theoretically possible, the gravitational pull off a moon sized body is a little to small to sustain another smaller body in its gravitational field. The moon 'Rhea' of Saturn is thought to have a tenuous ring system though, with some dust and small particles in orbit around it.
The property that determines whether an object is part of the solar system is if it orbits the Sun. Objects within the solar system, like planets, moons, asteroids, and comets, orbit around the Sun due to its gravitational pull. Any object that does not orbit the Sun, such as stars in other solar systems or interstellar objects, would be considered outside the solar system.
The gravitational pull of any celestial body, is the maximum on its poles.
I am not sure i understand your question correctly or what you mean exactly. The sun does exsert a gravitational "pull" on all the planets in our solar system by the suns mass curving the space around it not by any "attracting" or "pulling."
No, because if one did have the gravitational effect of the planet will be much greater.
No, the water does not create any gravitational pull.
The Sun is the largest source of gravity in the solar system. Its mass is far greater than that of any other object, exerting a gravitational pull that keeps all the planets and other objects in orbit around it.