From: Akira Bergman on
Euler's identity contains all the goodies;

e^(i*Pi) = -1

'e' is implied in the natural numbers (N) by the density of the primes
(P).

How are 'i' and Pi included in N (if they are)? P/log(P) has a uniform
density with fluctuations. Can these fluctuations be used to explain
'i' and Pi?

I did some formant analysis on P/log(P) with Praat, and found 4
distinct patterns, probably corresponding to the four cycle nature of
'i';

i^n = 1,i,-1,-i,... ; n in N

But I am not confident with his one. I have no idea how to explain Pi
in N. Maybe through the Zeta function?
From: Gerry on
On May 31, 7:21 pm, Akira Bergman <akiraberg...(a)gmail.com> wrote:

> Euler's identity contains all the goodies;
>
> e^(i*Pi) = -1
>
> 'e' is implied in the natural numbers (N) by the density of the primes
> (P).

Huh?

> How are 'i' and Pi included in N (if they are)?

They aren't.

> P/log(P) has a uniform density with fluctuations.

Huh??

> Can these fluctuations be used to explain 'i' and Pi?

What is there to explain?

> I did some formant analysis on P/log(P) with Praat, and found 4
> distinct patterns, probably corresponding to the four cycle nature of
> 'i';
>
> i^n = 1,i,-1,-i,... ; n in N
>
> But I am not confident with his one. I have no idea how to explain Pi
> in N. Maybe through the Zeta function?

Sure. Makes as much sense as anything else you've written here.
--
GM
From: Don Stockbauer on

Are natural numbers isomorphic to complex numbers?

They are to me, but then, I never was too good at math.
From: Frederick Williams on
Don Stockbauer wrote:
>
> Are natural numbers isomorphic to complex numbers?
>
> They are to me, but then, I never was too good at math.

An isomorphism is (among other things) a map that preserves structure.
What structure do N and C have?

An isomorphism is (among other things) a map that is onto. What map
from N to C is onto?

--
I can't go on, I'll go on.
From: Stephen Montgomery-Smith on
Akira Bergman wrote:
> Euler's identity contains all the goodies;
>
> e^(i*Pi) = -1
>
> 'e' is implied in the natural numbers (N) by the density of the primes
> (P).
>
> How are 'i' and Pi included in N (if they are)?

How about Euler's other identity

sum 1/n^2 = pi^2 / 6.