last day (15 days later) » 

14:26
Hi
"I help math"
lol
The world must be sleeping right now
I cannot get answers to my question either!
We're in the same boat
Wake up, India!
Wake up, China!
:D
Yep, we got dem cojones
:D
14:36
I hate the type of analysis / math you're doing right now
I'm more of an abstract guy
I avoid all numbers and analysis
@ShineOnYouCrazyDiamond don't like it much too
but it provides me a good heuristic for one of my questions
Oh, twin primes, ic
@ShineOnYouCrazyDiamond not twin primes
the limit of this sum is approximately equal to the number of primes of the form $n!+k^{k^2}$
there should be a finite number of primes of this form
Those primes man...
Hard to believe no one's come up with anything simple yet interesting to say about them, all research level statements require complex analysis, etc
we know so little about them
@ShineOnYouCrazyDiamond there are a lot of simple yet interesting statements about them
although most of them are unprovable
Oh yea
I meant provable
:D
Axiom 7) There are infinite twin primes, done
I think that we just haven't invented the right tools for the job yet
@ShineOnYouCrazyDiamond it does seem so
Einstein #2, where are you at?
Einstein #2, would be like okay fuck black holes. Let's look at the integers lol
The simplest to understand, yet least understood structure
lol yup
14:52
Did you know
You can have a topological ring on the integers?
Evenly spaced integer topology
but if you do something like $U_a = \{ an^e + b : n \in \Bbb{Z}\}$ you get a basis for another topology, but it's probably not a topological ring
well i don't know a thing about rings or topology so...
Those are easy to understand at their basic level, but then there is a whole book entitled topological rings
It's annoying that none of these books have a focus on the integers, yet everyone and their mother focuses on integers
They focus solely on abstract rings
Of course those are important since the integers are related, but they should always tie it back to the basics. That would be an interesting read
The canonical example of a ring is in fact $\Bbb{Z}$. That's what ring theory abstracts, the integers...
Primes are just $ab \in (p) \implies a \in (p)$ or $ b \in (p)$. If true, then $p$ is prime and vise versa.
$(p) = p\Bbb{Z}$
which is actually exactly what it looks like
notationally
These $n\Bbb{Z}$ are precisely the ideals of the ring $\Bbb{Z}$.
They are subgroups that absorb elements multiplicatively
I think if anything, elegance will come from abstract algebra, not analysis, but most results in NT are done in analysis, kind of annoying!
Usually both fields though
@ShineOnYouCrazyDiamond i agree
@ShineOnYouCrazyDiamond i gtg
cya later sometime

last day (15 days later) »