the distance it would take to travel from the sun to all of the seven planets.
206351
Mercury 36-million miles\nVenus 67.2-million miles\nEarth 92.9-million miles\nMars 141.5-million miles\nJupiter 483.3-million miles\nSaturn 886.2-million miles\nUranus 1.8-billion miles\nNeptune 3-billion miles\nPluto 4-billion miles
512059
A NASA site states:\n"The heliopause has never been reached by any spacecraft; the Voyagers may be the first to pass through this region, which is thought to exist somewhere from 8 to 14 billion miles from the Sun. Sometime in the next 5 years, the two spacecraft should cross an area known as the termination shock. This is where the million-mile-per-hour solar winds slows to about 250,000 miles per hour—the first indication that the wind is nearing the heliopause. The Voyagers should cross the heliopause 10 to 20 years after reaching the termination shock."\n\nAlso check APOD 2002 June 24  (APOD = Astronomy Picture Of the Day).  Their best guess is 110 AU (Astronomical Units; 1 AU is the average Sun-Earth distance), in the direction of the apex -- this would make it the shortest distance.\n\nYou ask for average distance.  Using their drawing (if it is to scale) the trailing end of the heliopause appears 7 times further than the front end.  Thus the average is 4 times  (seven plus one, the sum divided by two): 440 AU.\n\nAs the previous person said:  this is a guess.  It is based on an educated guess for the front end (NASA), and a relatively well thought out drawing that, maybe, could represent the quasi-ellipsoidal form of the heliopause surface.\n\nA mile is 1.6 km (8 billion miles is 12.8 x 10^9 km)
470923
http://sse.jpl.nasa.gov/planets/profile.cfm?Object=SolarSys&Display=Overview\n\nCheck out this website, you can find all the info you need about each of the planets and the sun here.
80910
The sun is 93 million miles from Earth on the average, since the Earth does have a slightly elliptical orbit. How long it takes to get there is kind of an incomplete question because it all depends what you want to do when you get there.\n\nIt wouldn't take long for a spacecraft to fly straight to the sun and either fall into it or zoom by and then off into space, but if you wan to launch a probe to study the sun you have to be more clever.  \n\nThe link below is information on the Ulysses probe sent out in 1990. Ulysses actually did something of a "bank shot" off of Jupiter in order to get into an orbit where it goes around the sun over its poles rather than around the middle, which is rather cool that it worked so well.  Imagine playing billiards on a table three miles long and two wide and sinking the eight in a corner pocket after banking off of two cushions -- and then multiply that by a million, and you have a good idea how difficult this stuff is.
146500
There are theoretically countless planets, because there are countless stars, and a countless number of those will have a planet the same distance as ours. So there has to be countless other life forms out there.. the problem is, is that space is so bloody huge that the distance and time it takes to get anywhere far outways the task of actually doing it ( for other advanced lifeforms ).. And the chances that anything would choose to come our way is pretty bloody remote. But don't let religions lead you into believing we are the only lifeforms, that would be naive
560097
Technically, it is ... just slowly ... the orbits that the planets make around the sun are actually the planets spiralling inward toward the sun ... they will collide with the sun eventually.
22692
Distance Venus to the Sun: 67 million miles or 108 million km\nSpeed of light in a vacuum: 670,616,629.4 miles per hour or 1,079,252,848.8 km per hour\n\nMinutes of travel: about 6.004
608860
The Earth is about 13 thousand kilometers (8000 miles) wide, whereas the Sun is roughly 1.4 million kilometers (900,000 miles) across. This means it would take more than 100 Earths to span the width of the Sun! If the Sun were a hollow ball, you could fit about 1,300,000 Earths inside of it!
223144
5 dozen Milky Ways a day ought to do it.
284473
Well, they go in diameter, Jupiter, Saturn, Uranus Neptune Earth Venus Mars Mercury Pluto, so \nJ S U N E V M M P  so why not have: \nJust Say Upto Nine Easy Very Merry Mighty Planets
272450
The average distance from the Moon to the Earth is 384,403 kilometres (238,857 miles
266719
All the answer I saw is wrong so far. Come on people.Anyway here is your answer buddy trust me on this. 100% sure\n\nA travels from Earth to Jupiter 6 hours before B starts from opposite side, which means 180000 km/h extra. The total distance is 980000 and when you substrack 980000-180000= 800000 you find the total distance of the meeting point of A and B and since they are traveling towards each other you add they speed which is 80000 and you divide 800000/80000=10hr this is when they are going meet. But since A already traveled extra 6 hours it makes 16 hours and C coming from same point as A but 12 hours later. So in order to C meet with A and B at the same time C has to travel 480000/4= 120000km/hr this means. It is divided by 4 because 16-12=4
363865
Once a scientist tried to calculate it by math, he said that only in our galaxy there are about 100 million suns, our sun has 9 planets to follow, while other suns could have more or less, so he said that each star could have 5 planets medium, this makes 500 million planets in our galaxy , medium , then he said that 1 of each 100 planet could be warm like ours , this makes 5 million planets , and one of each 100 of those , could have suitable gravity and atmosphere and so a sort of life , this makes 50 thousand planets , and one of each 100 of those has some forms of intelligent life, this makes it 500 planets only in our galaxy.\n\nbut the equation is much easier, our earth is like a grain of sand in its own solar system , why could it be the only form of intelligent life host in the whole universe ?\n\nI believe that some sorts of intelligent life on other planets are asking the same question of yours, and they could never know that we even exist.
674699
A space craft would use the gravitational force of a large body to increase its velocity and/or change direction.  The speed achieved would depend in part on the strength of that gravitational field.  The nearest star to our sun is about 4 light-years away which means it takes light 4 years to cover that distance (about 23 trillion miles).  Using the most advanced technology we have today, a space craft would only be able to achieve about 10-20% of light-speed so it would take about 20 to 40 years to reach the nearest star at top speed.  However, because of the mass of the fuel and food and water needed to supply the astronaut on such a mission and the time needed for acceleration and braking, it becomes nearly impossible with current technology to reach it in a human lifetime.
104440
Travel the oceans and the seven seas.\n\nAncient Seven Seas            Modern Seven Oceans\n                            \n1. Mediterranean              1. North Atlantic\n2. Black                      2. South Atlantic\n3. Red                        3. North Pacific\n4. Persian                    4. South Pacific\n5. Caspian                    5. Indian \n6. Arabian                    6. Arctic\n7. Atlantic                   7. Antarctic\n                  I think.\n\nThere are seven notes, do is just an octaval repeat of do.\nAntarctica is not poulated in the normal sense of the word.\nSo just continents.\nAnd those are not the right seven planets. I guess you could just not count Earth but these are the ancient seven planets\n\n1. Moon       Silver   Ag       All the metals known in \n2. Mercury    Mercury  Hg       ancient times had a planet.\n3. Venus      Copper  Cu       The others couldn't be seen.\n4. Sun        Gold   Au\n5. Mars       Iron   Fe\n6. Jupiter    Tin    Sn\n7. Saturn     Lead   Pb\n\nThere are just so many groups of sevens in the world.\n\nHowever I don't think this has anything to do with a matrix.\nIt's just a nice sized odd number for things. Nit too many,not too full. Oh and the most number of things that you can have in your mind at once. VERY IMPORTANT.
86951
The distance between the two planets will varry depending on where each is in their orbit around the sun.\n\nMercury has an orbital radius of about 5.795 E7 km,\nVenus has an orbital radius of about 1.0811 E8 km.\nSo once in a while, when Mercury and Venus are aligned, the minimum distance between the two planets is 5.016 E7 km.  One the other hand, if both planets are on opposite sides of the sun, the maximum distance would be 1.6606 E8 km.\n\nI dont know why you are thinking that a distance would be measured in kilograms (kg) [possibly just a typo I guess].
438851
8.8 AU....or 868 million miles from the sun.