That is a good question which was answered by Isaac newton who had to invent the science of calculus to explain it. In fact the earth moves in a circular orbit (approximately) and one of the implications is that it is constantly accelerating towards the centre of the circle, in this case the sun, which is where the force comes from.
It's a centrifugal effect that you can see by whirling something round on a string. The force in the string is more if the object goes quicker. Replace the string by the force of gravity and that is why the planets move in the orbits they do.
In fact it had already been discovered by Kepler that the planets move in ellipses, but a circle is not a bad approximation in the case of the planets, and it explains why it took so long to discover that.
If the earth started with zero speed, it would move towards the sun in a straight line, moving quicker and quicker until it plunged in to the sun after about ten weeks.
The sun's gravity pulls Earth toward the sun.
YES, that is why the earth revolves around the sun.
All the planets in the solar system are kept in orbit by the gravitational pull of the sun. The effect of the other planets and other bodies in the solar system is to change the shape of the orbits slightly but the sun is what keeps them in orbit around the sun.
Even though the suns gravitational pull is stronger than the moons and does infact effect the tides slightly, the moon is close enough to pull the tides more than the sun. Its all distance related.
They stay in orbit because of the suns gravitational pull.
Fancy boy
Planets are kept in their orbit by the suns gravity, yet their momentum keeps them from falling into the sun. (Thank goodness!) Planets orbit in the direction their star rotates, so in our solar system, all planets orbit in the direction of the star.
Neap tide
Its pull on the earth would be 25% as strong.
the suns gravitational pull is strongest because the earth is at its closest point to the sun.
The su does not move the earth moves around the sun by the suns gravitational pull
They are all orbiting the Sun, therefor all in the Suns gravitational pull.
The Gravitational pull on the oceans is Partially canceled out by the suns Gravitational pull.
The Gravitational pull on the oceans is Partially canceled out by the suns Gravitational pull.
The Gravitational pull on the oceans is Partially canceled out by the suns Gravitational pull.
All the planets in the solar system are kept in orbit by the gravitational pull of the sun. The effect of the other planets and other bodies in the solar system is to change the shape of the orbits slightly but the sun is what keeps them in orbit around the sun.
The suns gravitational pull.
All celestial bodies exhibit some kind of gravitational pull on all other bodies. Hence, yes, it is very much possible to figure out the pull between the Earth and Mars. So yes, there can be, and is, gravity between our planets. Needless to say, the effect of Mars gravity on earth is overwhelmed by the effect of the suns gravity on earth. But it still exists.
The Suns gravitational pull.