Well now that's made we can relax and look at infinity.
No, really. Current concepts of infinity originate from either the material world or the idealism world.
Take the number line move in either direction until you reach the end add a number, you can never reach the end. this is a take off from Zenos paradox.
Define a function such that for any value in x there exits a y value. Because of the above statement the function is defined as continuous, and goes on until, wait for it, infinity.
This is a take of from Euclidian geometry.
Consider two functions, such that movement along their number lines converge. Wow imaginary numbers what a concept! Now divide one by the other with no number a zero. Wow a Möbius strip. iteration of rational functions!
We have moved from Arisotle to Euler. Let's get crazy now and look at Cantor sets.
but these are just continious algebras you protest, what about discontinuous algebras and regardless of how hard infinity is to prove, I haven't proven -1 times 1 is a negative number, or its converse -1 times -1 is a positive number. Ok, ok but that will take some Ring theory and Topology. I'll pretend you are ready for this . Back to Euler (Einstein was nothing) imagine (a dirty word) a something having no outside or inside a characteristic of 0, an algebraic extension of the möbius, a Klein bottle. Move now to a characteristic or manifold of two and you can morph a coffee cup into a doughnut. Let's move characteristic 11.
We have now gone from Euler to Hawking and string theory.
to understand infinity in the universe of ideas is to listen to a Bach Canon, an opera of Mozart, an Escher print, anything by Picasso, or watch ants build a bridge , so easy.
finishing the drink now, hope you google some of this stuff.
No, really. Current concepts of infinity originate from either the material world or the idealism world.
Take the number line move in either direction until you reach the end add a number, you can never reach the end. this is a take off from Zenos paradox.
Define a function such that for any value in x there exits a y value. Because of the above statement the function is defined as continuous, and goes on until, wait for it, infinity.
This is a take of from Euclidian geometry.
Consider two functions, such that movement along their number lines converge. Wow imaginary numbers what a concept! Now divide one by the other with no number a zero. Wow a Möbius strip. iteration of rational functions!
We have moved from Arisotle to Euler. Let's get crazy now and look at Cantor sets.
but these are just continious algebras you protest, what about discontinuous algebras and regardless of how hard infinity is to prove, I haven't proven -1 times 1 is a negative number, or its converse -1 times -1 is a positive number. Ok, ok but that will take some Ring theory and Topology. I'll pretend you are ready for this . Back to Euler (Einstein was nothing) imagine (a dirty word) a something having no outside or inside a characteristic of 0, an algebraic extension of the möbius, a Klein bottle. Move now to a characteristic or manifold of two and you can morph a coffee cup into a doughnut. Let's move characteristic 11.
We have now gone from Euler to Hawking and string theory.
to understand infinity in the universe of ideas is to listen to a Bach Canon, an opera of Mozart, an Escher print, anything by Picasso, or watch ants build a bridge , so easy.
finishing the drink now, hope you google some of this stuff.