My, that IS geeky! I got lost somewhere after "I once wrote a program..." 
My, that IS geeky! I got lost somewhere after "I once wrote a program..."![]()
cjp has the nub of the matter here. The entire field of mathematics is the result of the application of logic to a (very) few base assumptions (axioms). You don't need the universe, gravitation or relativity get to the derivation of Pi, therefore it cannot affect its value.No, Pi comes from mathematics, not from physics.
Right, but my solution pre-dates Java (and maybe even C++, come to think of it). It was written in Modula-2, a probably now forgotten Pascal variant.You can now do the same in Java with a few lines of code...
Right, but my solution pre-dates Java (and maybe even C++, come to think of it). It was written in Modula-2, a probably now forgotten Pascal variant.
cjp has the nub of the matter here. The entire field of mathematics is the result of the application of logic to a (very) few base assumptions (axioms). You don't need the universe, gravitation or relativity get to the derivation of Pi, therefore it cannot affect its value.
An equally valid definition of pi is the sum of the taylor expansion 4*(1 - 1/3 + 1/5 - 1/7 + 1/9 - ...). How would it be possible for the shape or location of the universe to alter the result of a sum, regardless of what this value can represent? Working from this as a definition, you can prove that pi is the value of the circumference of a circle divided by its radius, but this is still just a 'consequence' in our use of pi.
Sorry to be boring, but I said it first in my crude and unlearned manner:
"Mathematics is mathematics; reality is reality"
I just worked it out a bit more in what I thought could be a more complete and enlightening explanation, by describing a bit how physics, mathematics and pi are related...