Earth ---> Moon ---> SUN.
The occurrence of a lunar eclipse only depends on the alignment of the earth and moon
with respect to the sun ... all three are collinear with the earth in the middle. It's not
related to any other body or place in the solar system.
The order of the sun moon and earth is
1.Sun
2.Earth
3.Moon
Sun . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Earth ... Moon
The three bodies are arranged in a straight line, with the earth in the middle,
and the sun about 390 times as far from it in one direction, as the moon is
in the opposite direction.
Sun . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Earth . . Moon
A lunar eclipse is the result of the Moon moving into the Earth's shadow, so the Earth would be directly between the Sun and the Moon.
moon sun and earth.
They are the penumbra (think of a large circle) and the umbra (think of a small, darker circle in the center of the large circle). People who have the penumbra only pass over them see a partial eclipse. People who have the umbra pass over them see a total eclipse.
People in the penumbra of an eclipse see a partial eclipse.
No. During an annular eclipse the moon is farther away than during a total eclipse, which is why it appears smaller in the sky and cannot completely block the sun.
The white halo that can be seen during the Solar Eclipse is the Sun's Corona.
During an eclipse
A lunar eclipse is the result of the Moon moving into the Earth's shadow, so the Earth would be directly between the Sun and the Moon.
Don't worry about the "center of the solar system". That's just the sun anyway. During a lunar eclipse, the Sun, Earth, and Moon are lined up along the same straight line, in just that order. The Moon is directly 'behind' the Earth, so it's in the Earth's shadow.
Don't worry about the "center of the solar system". That's just the sun anyway. During a lunar eclipse, the Sun, Earth, and Moon are lined up along the same straight line, in just that order. The Moon is directly 'behind' the Earth, so it's in the Earth's shadow.
During a lunar eclipse, the Moon is in Earth's shadow, so the position of Earth, of course, is between the Moon and the Sun.
during a lunar eclipse, earth, sun and moon are in a straight line, First it's the sun, then earth, and last the moon.
the earth is orbiting around the moon and earth
because when an eclipse takes place the moon, sun, and earth have to be lined up directly. and in this position the moon is full. in a solar eclipse the moon would be new
A lunar eclipse can only occur on the night of a full moon because of the position that the moon is in during a full moon. During a lunar eclipse, the Earth is positioned in between the moon and the sun exactly so that the Earth casts its shadow on the moon. During a full moon, the sun, Earth, and moon are lined up in the same way as a lunar eclipse, but the Earth is either too high or too low to cast its shadow on the moon. The only position at which the moon is a full moon is at that position since we can only see part of the lit face of the moon when the moon is at a different position around the Earth.
Taking the Sun, Moon, and Earth, all three of them are lined up, with their centers pretty close to the same straight line, at the time of any eclipse. -- At the time of a solar eclipse, the Moon is the one in the 'middle'. -- At the time of a lunar eclipse, the Earth is the one in the 'middle'. I say 'middle', because the Sun is still 390 times farther from Earth than the Moon is, all the time.
The center of the moon is within a few thousand miles of the straight line between the center of the sun and the center of the earth.
You can study the gravitational force the sun excerts on light of other stars by comparing their position in daytime during the eclipse and a night. Einstein's General Theory of Relativity was proved in this way.
It would during a solar eclipse, but probably not during a lunar eclipse.