The Earth orbits the Sun

I would like to point out that the experiment was a though experiment. Meaning it is one that is done in your head (unless you have a floor which can spin fast enough to achieve the effect described). This cannot be done by standing there and spinning as you cannot spin fast enough while at the same time keeping your head from moving. I would also like to point out that this is just a small scale example of the Polaris effect you described. The earth is the floor and the fan is the stars. As the earth rotates it appears as though the stars are moving when in reality we are moving and the stars remain stationary. first of all, if you didn't know already, gravity is a force caused by by the bending of space by mass. The larger the mass the larger the gravitation force of the object. g=GM/r^2, where g equals the gravitational effect on you, G equals Einsteins gravitational constant, M is the mass of the planet are standing on and r is the radius of the planet (this is only for standing on a planet, not the gravitational force between planets). Or in other words, the bigger the object the more objects want to move closer to it. This is similar to a trampoline. If there is a trampoline with small balls spread evenly across the surface of the trampoline and two people stand on it, one very fat and one very skinny (www.youtube.com/watch?v=MTY1Kje0yLg, if you would like to see what I'm trying to explain). There will be more balls at the feet of the fat person as that person is creating a bigger bending effect on the trampoline thus causing more balls to role towards him. It is obvious that the sun has a much larger mass due to its massive size. So in response to your statement, "the Earth would not have enough gravitational pull to keep the Sun as close as it is", that is true. However the sun would not orbit at a much farther distance. The sun wouldn't even orbit, earths gravity simply isn't enough to keep the sun in orbit. Secondly I would like to ask how you propose the superdense space works and provide some sort of evidence to show how it effects planets. And if this is true and it keeps the earth in the same place why does it not do this to all other planets and stars in the universe? The universe is not like a giant bowl of soup. the objects in the bowl of soup simply do not have the ratio of size required to cause any sort of noticeable gravitation force. Plus the object at the centre of the soup pot does not move because you are spinning everything around it. its not being held in place by the soup, its simply not being pushed by the soup. its like the fulcrum in a teeter totter. it remains stationary as the teeter totter rotates around it. I would also like to point out that I'm not sure if you realize the scale of the sun to the earth. If the earth was the size of a golfball (1.68 inches in diameter) the sun would be 180 inches in diameter. Now if the earth where to achieve the density of an object 109 times bigger then itself in diameter, we would not be able to survive. Why? because the gravitation force of the earth on us would be so great that we would be squashed on the surface. as a said earlier g=GM/r^2. if the mass goes up and the radius and G stay the same then the gravitation effect dramatically increases and goes past the threshold that the human body can withstand.