You can think of it as the Moon pulling the Earth apart, due to the difference in gravitation. Water, being able to move around more freely, reacts more readily to this difference in gravity, than the solid part of the Earth.
The gravitational pull of the moon creates a very slight bulge in the earth, but at the same time, the moon stays behind this small bulge, allowing it to pull on the bulge in the opposite direction the earth is spinning in, which over very long periods of time can slow down the rotation of the Earth, making the day longer
The largest distance between Earth and Mercury is when they are at opposite ends of the Sun. So the farthest they can be is 0.38+1 = 1.38 AU.
high tide
Yes. High tides happen on the point on earth closest to the moon, and the opposite side of the earth.
The solstices are determined by the distance the Earth is from the sun in its orbit. Winter is when the sun is farthest away relative to the Earth's tilt. Summer occurs when the opposite is true.
At the equator. The spin of the earth is fastest there.
The gravitational pull of the moon creates a very slight bulge in the earth, but at the same time, the moon stays behind this small bulge, allowing it to pull on the bulge in the opposite direction the earth is spinning in, which over very long periods of time can slow down the rotation of the Earth, making the day longer
The gravitational pull of the earth causes a bulge on the opposite side of the moon. The gravitational pull of the earth is greater than the gravitational pull of the sun.
The moon's gravity attracts the water.
The largest distance between Earth and Mercury is when they are at opposite ends of the Sun. So the farthest they can be is 0.38+1 = 1.38 AU.
by the inertia.
high tide
Venus is the planet that rotates in the opposite direction to all the other planets.
high tide
Venus
Directly opposite the center of the earth.
The direction of the Earth's spin and the direction of the Moon's orbit is the same - counterclockwise