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jeffrey c mc.
- 45
- 1
An alternate one by the by. My approach will be working with a base ten logarithm function(s). I'm going to graph the sphere on a 3d graph. I'm going to give the value of the radius, one unit. I will first look at the ten elevations up and down from the index, establish the area at each elevation. Then see if I can identify any predictable relationship between each one. If it proves to be elusive, I'll work with 100 elevations, above and below. If this proves fruitful, I will look at the horizontal axis to see if I can predict the largest amount of perfect cubes that would fit within all the lines of the sphere, using whatever base I desire, as long as it is in relation with a base ten pre-ulate. Heh, coined a term, I think. In a sense this would comprise the regular cube that can occupy a regular sphere, except the ones that would stack up in descending number from the plane of the cube, to the plane of the sphere; yet I should understand the logarithmic function relation, which should provide me with a ratio of all that lies without the cube(s), and the additional smaller cubes, yet still lie within the sphere. This may have already been done, and I would be busting my B***s to no good purpose. I guess it would be referred to as 'cubing the sphere'; which, on the whole sound quite sexy. Any one wish me luck, on this endeavor?
Jeffrey
Jeffrey
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