How many days in uranus?
825588
hey visit \n\nhttp://en.wikipedia.org/wiki/Uranus
1116337
Uranus is in the middle
267369
21 days if you do not miss a day
851945
You suggest a year is 365 days. Wrong.\nA year = 365.24219040 days. (That's why we have leap years)\nThat is important when you want to know in seconds.31556925 s\n\nTh
1064552
LONG ONE:\nSplitting the year up into 365 days was easy - everybody knew what a day was, and everybody knew what a year was, so they just counted up how many days there were in a year. This happened all over the world, many times, independently in different cultures. When one group of invaders came along to politely ask another group if they would mind, say, changing their religion, the agressors would say "You've got a day to think about it before we smash you up". It's unlikely these two nations would speak the same language, so this would take a lot of hand waving and pointing at the sun and moon to get across, but across it would nevertheless be gotten. There was no need to go into deep astronomical calculations, because the concept of a day was universal - even newly introduced mortal enemies who didn't have a word or belief in common, would at least have a measurement in common.\n\nGood story below\n\nBryan crooked his right thumb to touch the base of his right index finger (please follow along and do it, too), and said, in much the same way as a Sumerian might have, 4,000 years ago... "One."\n\nHe then moved up a notch - see that? Each of your fingers has three distinct segments. I never really noticed that! - and, touching now the middle segment of his right index finger with his right thumb, he said... "Two." \n\nI think you may sense where this is leading. By the time your right thumb has counted each of the three segments of his neighboring four fingers, you're up to 12. \n\nLong before people were reading with their lips, one imagines, they were counting with their fingers. \n\nSo a day was divided into 12 segments, called hours; and, too, the night. \n\nWhat a lovely story. It was all the ancient Sumerians' fault! The ancient Babylonians inherited this quaint practice, and presumably added their own 60-fetish to divide the hours into 60 minutes, and the minutes into 60 seconds. The Babylonian fascination with the number 60 is interesting in itself - so interesting, in fact, that it suggests the Babylonians were the ones who split up the day, using geometric series:
238707
Venus, Uranus and Pluto\n\nI agree with the answer above about Uranus.
429246
The first of the planets to be "discovered" was named after the muse of Astronomy (Urania). Uranus is also the name of Saturn's father. Uranus was discovered by William Herschel in 1781, though it had been mistakenly mapped in the past as a star. It is possible under the correct conditions to see Uranus with your just eye (no telescope), though it is pretty difficult to do, and you would need to have good eyesight and know exactly where to look to see it. Of course, you have to pronounce the name correctly. If you say something that sounds like "yer-anus," I don't think you'll make too many friends that way, unless they are proctologists. You should instead say the name as "yer-ah-nis" - not much of an improvement, but it may help.\n\nUranus is so far away that we can't get a great deal of information on it from this distance. A few things we can see are its tilt and rotation rate. Uranus is pretty much tipped over on its side. You know that the Earth is tilted over 23 1/2 degrees; Uranus is tilted over 98 degrees! This means it is on its side (since being 90 degrees would be exactly on its side). Due to this the seasons on Uranus are pretty extreme, especially if you are located at one of the poles. It takes Uranus about 84 years to go around the Sun, so the seasons last for about 21 years. If you were located at one of the poles, you would have 21 years of constant daylight during summer and 21 years of continual darkness during the winter. The temperatures would be pretty extreme. Not only is the planet tilted over, but the  rings and satellites are also in tilted orbits about Uranus. It is likely that early in its history the planet was knocked over by an impact and as the system formed (as the satellites and rings formed), they also ended up in tilted orientations.\n\n Figure 1. The orbit and tilt of Uranus are shown. Uranus is tilted pretty much on its side, so there are times when only certain parts of it will get any sunlight. This is especially true for the polar regions. \n\nThere are several very thin rings around Uranus. The rings were discovered from the Earth by accident in 1977. Astronomers were trying to study the atmosphere of the planet by watching how the light of a star would change (get absorbed by the atmosphere) as the planet moved in front of it. Before the star was anywhere close to the planet, the star's brightness faded several times. This happened again when the star was located on the other side of the planet. Now it is possible that the star could have been eclipsed by some moons, but that would have required some very precise alignments of the moons with the distant star. Rings were the cause for the dimming of the starlight! The rings are rather similar to Jupiter's ring in that they are made of darker material as well as small microscopic particles - stuff like dust. Uranus actually has 11 main rings, far fewer than Saturn.\n\n Figure 2. The dimming of a star's light as it approached Uranus indicated that there are rings around Uranus. \n\nViewing Uranus from the Earth doesn't provide much information, so let's send a spacecraft out there. Actually, we have - the only spacecraft to visit Uranus was Voyager 2 in January of 1986. The other Voyager spacecraft did not visit any other planets after its encounter with Saturn, while Voyager 2 continued on to Uranus and Neptune. All of the up close images we have of them are from that one spacecraft. What did it see?\n\nWhen Voyager 2 flew by Uranus, there were no cloud features (spots) as had been seen on Jupiter and Saturn. In fact, there are no markings at all; the atmosphere of Uranus appeared to be very dull. This was really surprising, since at the time that the Voyager spacecraft flew by Uranus, one of the poles was pointed toward the Sun. Astronomers thought that this would have caused the atmosphere to heat up a great deal and therefore produce a bunch of storms. It was a bit co
1030931
about 27.234 days\nactually 2.7368*10^6 mins
1118166
Mercury:  Orbital period, 0.241 years.  Rotation, 58.6 days.\nVenus:  Orbital period, 0.615 years.  Rotation, 243 days.\nEarth:  Umm... duh.\nMars:  Orbital period, 1.88 years.  Rotation, 1.03 days.\nJupiter:  Orbital period, 11.86 years.  Rotation, 0.41 days.\nSaturn:  Orbital period, 29.45 years.  Rotation, 0.44 days.\nUranus:  Orbital period, 84.02 years.  Rotation, 0.72 days.\nNeptune:  Orbital period, 164.8 years.  Rotation, 0.67 days.\nPluto:  Orbital period, 247.9 years.  Rotation, 6.4 days.\n\nHow would the day and year affect us?  Negligibly.\n\nFor the orbital period, this would really only affect any "seasons" on the other planets.  However, given their lack of any true "climate", it doesn't seem like it would make much difference.  Mercury is close enough to the sun that its temperature year-round is basically the same relative to human normals, i.e. inhospitable.  The same is true for all planets (and moons) from Jupiter and outward; we would simply see them as incredibly cold, and any colonies there would need to generate such a large percentage of their own heat that any seasonal changes in temperature would be insignificant.  Venus' thick atmosphere would make its surface about equivalent year-round.  We would notice seasonal changes in Mars... if it had any free surface water with which to create a climate.\n\nFor rotation, modified "day length" would normally be thought to affect our sleep patterns.  However, this again would be insignificant on any planet except for Earth.  Mercury and Venus rotate so slowly that we would sleep and wake dozens and hundreds of times, respectively, within a single "day" or "night", making the effect moot.  Mars' rotation is almost exactly that of Earth.  All planets beyond Mars are so distant that the light from the sun would be negligible, and our primary light sources would be artificial, so we would completely ignore the planetary day/night periods.
708889
"The number of days in 1000 years is 1000 times 365, plus 250, minus 10, plus either 2 or 3, depending on which 1000 years we're talking about (there are 25 leap years in every century.  \n  \nThat would give us either 365242 or 365243 days in 1000 years. \n\nThere are 24 hours in each of those days, 60 minutes in each of  those hours, and 60 seconds in each of those minutes: \n\nTotal seconds: 315,569,088,000
921149
40 days.\n\nGood evening:)
222276
Rotation: 6 Earth days is the length of one of Pluto's days...also... Revolution: 1 year on Pluto = 248 Earth years
319041
2 days. \nOlder ones are a week.
1166368
Venus, Uranus, and Pluto
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The Saros is 6585.32 days \n\nor in years 18 years 11 and a third days, plus or minus a day (Dependent on the number of Leap Years included in the eighteen year period).
757737
If both Jupiter and Uranus be in their shortest distances from saturn, then Jupiter will be the nearest. The distance will be around 5 A.U (Astronomical Unit)(1 A.U=150000000kms).
561714
Uranus is distinguished by the fact that it is tipped on its side. Its unusual position is thought to be the result of a collision with a planet-sized body early in the solar system's history. Tilt of axis (degrees)97.86 \n\n1. The rotation of Uranus(7th planet, rotation 84 earth years, 2.87 billion Km from Sun) is retrograde, contrary to the rest of the known rotations. \n2. The rotation of Uranus' four moons is also retrograde. \n\n3. The orbits of Uranus' moons are at a sharp angle (82 degrees) with the orbital plane of the planets. \n    ( undue inclination of a primary to the ecliptic)\n4. The plane of Uranus' equator is also 82 degrees and coincides with the plane of its moons.\n    (large disco-ordination between the inclinations of primary and satellite)\n (Also marked divergence from Bode's Law)\n(Uranus receives 390 times less light than our Earth)\nMechanically, therefore, Uranus and its moons present the perfect picture of a little solar system whose motions are all in the opposite direction from ours. \n\n It may be considered logical to suppose that a foreign element is involved, May be the distance from the Sun is responsible and presence of any other star or celestial bodies