Some interesting math
In an array of 3 numbers like <x,y,z>, there are 6 possible combinations that two different values can make, in addition to one combination of the higher number by itself.
Ex,
1x1x1 (1)
2x1x1 1x2x1 1x1x2 2x2x1 1x2x2 2x1x2 2x2x2 (7)
Every possible value has 6 additional possible combinations than the number before it
EX
3x1x1 1x3x1 1x1x3 3x3x1 1x3x3 3x1x3 3x2x2 2x3x2 2x2x3 3x3x2 2x3x3 3x2x3 3x3x3 (13)
So to figure out the number of possible combinations that exist between <1,1,1> and <255,255,255> you would need to calculate something like the following
[1 + (6 * 0)] + [1 + (6 * 1)] + [1 + (6 * 2)] + ....... + [1 + (6 * n)]
where n = the number of values.
Unfortunately I don't know how to make that into a convenient formula

But I do know how to put it into a computer program!
default
{
state_entry()
{
integer result;
integer n;
for (n = 0; n < 255; n++)
{
result = result + 1 + (6 * n);
}
llSay(0, (string)result);
}
}
The result is 194,565. Subtract 280, and that is how many prims it would take to represent every size between <11,1,1> to <255,255,255>, not counting fractional values.
So .... how many are we up to so far?
