They have an attraction toward each other but they stay still due to there heavy mass and there speed of high rotation
The planets revolve around the sun due to the force of gravity. Gravity causes objects with mass to be attracted to each other. The sun's massive gravitational pull keeps the planets in orbit around it.
No, gravity holds planets in orbit around the sun because the sun's gravity pulls on them. This gravitational force between the sun and planets keeps them in their respective orbits. The force between planets themselves is much smaller and mainly affects their interactions with each other rather than their orbits around the sun.
There is a mechanical force of attraction between all the planets and the Sun, but because the Sun is so much bigger than every other object in the Solar System the attraction between the Sun and each planet is the most significant force. Any two objects attract each other with a gravitational force given by: F = G M1 M2 / R-squared The two objects have mass of M1 and M2 and the distance between them is R. If the gravitational constant G is taken as 6.670 times ten to the power minus eleven, and the masses are in kilograms, and the distance is in metres, then the force comes out in Newtons.
Planets are spaced out because of the gravitational forces between them. The gravitational pull from the sun and other celestial bodies affects the orbits of the planets, determining their positions in the solar system. This spacing allows each planet to maintain its own distinct path around the sun.
The force of gravity between the planets and the sun keeps them in their respective orbits, maintaining their approximate distances from each other. This gravitational force acts as a centripetal force, balancing the planets' inertia and keeping them in stable orbits around the sun.
Gravity and inertia. The Sun's gravity holds all the planets in orbit with its immense gravity, and the planets have no tendency to change their orbits due to the law of inertia which implies that the planets will stay in their elliptical patterns until a force acts on them to change that status.
The planets revolve around the sun due to the force of gravity. Gravity causes objects with mass to be attracted to each other. The sun's massive gravitational pull keeps the planets in orbit around it.
No, gravity holds planets in orbit around the sun because the sun's gravity pulls on them. This gravitational force between the sun and planets keeps them in their respective orbits. The force between planets themselves is much smaller and mainly affects their interactions with each other rather than their orbits around the sun.
The Sun AND its planets attract each other with gravitic force.
because gravity and inertia are kinda of playing a game of tug a war but both sides are equal so they do not move
i Don't kno w it also? They are attracted to the sun. It is called gravity
because the gravatational pull from the sun and other planets keep the planets going in a circler motion and not bumping into each other.Answerbecause the gravatational pull from the sun and other planets keep the planets going in a circler motion and not bumping into each other. the planets each have defined Elliptical, not circular, orbits that remain constant because of gravitational pull of the sun and from each other. Pluto does have such an elliptical orbit that for a time it was closer than Neptune, but they will never collide with their current paths.
'Gravoty' is an attraction between any two or more objects, be those objects atoms, protons or planets. stars andything in between. The planets have gravity , the Sun has gravity. They are attracted to each other. So why do they not 'crash' into each other? Because, the planets are moving with an acceleration. This acceleration together with the planets mass creates are force (F = ma). This force is balanced by the Sun's force of gravity. So the forces are in balance, so the planets orbit the Sun and not fall into the Sun. The oceans on Earth, being liquid, will be attracted to the Moon by Lunar gravity. So which side of the Earth the Moon is on , will be the 'High Tide'. This is balabnced 'Like a wheel balance', by a counter High Tide on the opposite side of the Earth, from the Moon.
The sizes of the Sun and planets determine the strength of gravitational pull of the planets on each other and the Sun. The Sun's mass is so great that the planets can't escape from the Sun's pull and so as the planets are moving by the Sun pulls them back into orbit.
gravitational forces
There is a mechanical force of attraction between all the planets and the Sun, but because the Sun is so much bigger than every other object in the Solar System the attraction between the Sun and each planet is the most significant force. Any two objects attract each other with a gravitational force given by: F = G M1 M2 / R-squared The two objects have mass of M1 and M2 and the distance between them is R. If the gravitational constant G is taken as 6.670 times ten to the power minus eleven, and the masses are in kilograms, and the distance is in metres, then the force comes out in Newtons.
As all the planets rotate around the sun at different speads, they are attracted when orbiting the sun.