The Moon's orbit is tilted by a maximum of 5.2º to the ecliptic, so that's the greatest angular distance above or below it, as seen from the center of the Earth.
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The moon orbits the Earth and it is tilted by five degrees to the Earth's ecliptic plane, so that the moon will either be above or below the ecliptic at most full moons, this in turn prevents the moon from entering the Earth's shadow - hence no lunar eclipse.
It is because the moon's orbit is tilted with respect to the ecliptic by about five degrees, meaning that at most new or full moons, the moon passes above or below the Earth's shadow, preventing an eclipse.
The Ecliptic. To be accurate, the Ecliptic is the plane in which Earth moves around the Sun; the major planets go around the Sun in planes that are close to the Ecliptic.The Ecliptic. To be accurate, the Ecliptic is the plane in which Earth moves around the Sun; the major planets go around the Sun in planes that are close to the Ecliptic.The Ecliptic. To be accurate, the Ecliptic is the plane in which Earth moves around the Sun; the major planets go around the Sun in planes that are close to the Ecliptic.The Ecliptic. To be accurate, the Ecliptic is the plane in which Earth moves around the Sun; the major planets go around the Sun in planes that are close to the Ecliptic.
They are often dark when viewed from below, but when observed from a distance or from above, they appear white just like any other cloud.
This is difficult to describe in text, without sketches, but I'll try: -- First, the 'equator' of the sky: That's a line all around the sky that's exactly over the Earth's equator. In your sky, wherever you are, this 'celestial' equator is a semi-circle from the exactly-east point on your horizon to the exactly-west point. Its highest point is due south of you, and at that point, its height above your southern horizon is (90 degrees minus your latitude). If you're on the equator, then the celestial equator passes right over your head. If you're at the north pole, then the celestial equator coincides with your horizon. If you're in Minneapolis, Salem OR, Bangor, Grenoble, Torino, or Belgrade, at 45° north latitude, then it passes 45° above your south horizon. -- The highest of the 3 stars in Orion's belt is on the celestial equator. -- The ecliptic is another line all the way around the sky. It crosses the celestial equator at two places, and it's tilted 231/2 degrees to the equator. So half of the ecliptic is above (north) of the equator, and the other half of it is below the sky's equator. -- Through the day, as the Earth turns, one of the two points where the ecliptic crosses the equator will be in your sky at any one time. The ecliptic will appear high in your sky for half of the day, and low in the sky for the other half. The point where it crosses directly south of you will wiggle up and down through a total of 47 degrees in 24 hours. -- The left pincher of Scorpius and the heart of Leo (Regulus) are on the ecliptic. The eye of Taurus (Aldeberan) is not too far off of it. The ecliptic is actually the line where the plane of Earth's orbit cuts through the 'bowl' of the sky. Some of the results are: -- The sun is always on the ecliptic. -- The planets are always close to the ecliptic. Now, in mid-2013, Jupiter is smack on it. -- The moon is always within about 51/2 degrees of the ecliptic. -- In Summer, the sun is high, so the ecliptic ... with the moon and planets ... is low during the night. -- In Winter, the sun is low, so the ecliptic ... with the moon and planets ... is high during the night. Remember those two points where the ecliptic crosses the celestial equator ? Those points in the sky are the 'equinoxes'. Those points are where the sun is on March 21 and September 21.
No. The Zodiac are 12 constellations that lie in the plane of the ecliptic; circumpolar ("moving around the pole") stars are well above or below the ecliptic.
what distance is nether heage de56 2jx above or below sea level
Important question ... the concept is involved with several other things associated with the moon. The moon's orbit is inclined about 5.1° to the ecliptic plane ... which immediately explains why neither solar nor lunar eclipses happen every month: The moon is typically above or below the straight line required to set up an eclipse. As seen from here on earth, the moon can appear anywhere within 5.1° above or below the ecliptic line in the sky, which in turn means anywhere within about 28.6° above or below the celestial equator. That apparent range of 5.1° above or below the ecliptic amounts to about 10 times the apparent diameter of the full moon.
Objects above or below the Ecliptic and objects further out or with an orbit further from the Sun than Jupiter.
Elevation.
The plane of the Earth's orbit around the Sun is called the "ecliptic". Most of the other planets and moons orbit in planes that are close to the ecliptic, but none of them have orbital planes that are exactly the same. The Moon's orbital plane is about 8 degrees angled to the ecliptic. So most times, the Moon is either above the ecliptic at the new or full, or below it. It is only when the new moon is on the eclliptic that we have a solar eclipse, and only when the full moon is on the ecliptic that we have a lunar eclipse.
We would if the moon's orbit exactly overlapped the ecliptic, but it does not. Most of the time at the time of full moon the moon is above or below the ecliptic, the path traced out by the orbit of the sun.
the distance above or below sea level
below equator about same distance as Hawaii
It must be New Moon but also the Moon must be at one of its nodes, i.e. crossing the ecliptic, because its orbit is tilted relative to the ecliptic, which is the plane of the Earth's orbit. Usually at New Moon the Moon passes above or below the Sun and there is no eclipse.
The moon orbits the Earth and it is tilted by five degrees to the Earth's ecliptic plane, so that the moon will either be above or below the ecliptic at most full moons, this in turn prevents the moon from entering the Earth's shadow - hence no lunar eclipse.
Planets in the solar system except Pluto orbit the sun along the ecliptic. The ecliptic is an imaginary line like the equator round the Earth. The rings of Saturn give you a good analogy. Pluto is probably a captured asteroid and not part of the original solar system. It's orbit dips above and below the ecliptic like the moon around the Earth