#Prime number theories

152 messages · Page 1 of 1 (latest)

steady robin
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So here I'll put some of my little thoughts and stuff about prime generating/ prime checking stuff but mainly prime generating polynomials

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Made ts cuz math discussion was getting flooded by my useless yapping

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Anyway

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So first one is
( L(n) - n² ) + N

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Lemme try it out a bit

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Aight it's broken

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Now I'm js coming up with smth

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24 * (L(n) - n²)

torpid ridge
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It's provably impossible.

native sandal
steady robin
steady robin
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U never know

native sandal
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its proved to not exist

steady robin
native sandal
steady robin
steady robin
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We only need to reverse a equation

native sandal
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👍

steady robin
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The congruence

native sandal
steady robin
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Wait u gave me a idea but it's probably not going to work

steady robin
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It isn't unique to the primes, but it will always hold true for the primes

native sandal
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Ohhh so you are not deriving it?

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just testing random formulas till it works

torpid ridge
torpid ridge
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If that's your standard, the "polynomial" y = x literally generates every prime.

native sandal
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😭

steady robin
steady robin
steady robin
steady robin
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Yal do I delete this discussion nun is happened anyway

torpid ridge
torpid ridge
# steady robin No bro,I said L(n) mod n = 1

I know that's what you said. I said that any prime-generating function including the nth Lucas number isn't a polynomial, because the function that generates the Lucas numbers isn't a polynomial.

thin berry
torpid ridge
thin berry
torpid ridge
thin berry
torpid ridge
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I agree with that much.

thin berry
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By a definition that includes "degree Infinity", the Lucas numbers are a polynomial

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or rather, they have a polynomial that is equal to them at integer values

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ofc there's infinitely many polynomials that satisfy that

torpid ridge
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I imagine there's some equivalent of Binet's formula for the Lucas numbers, which is exponential, but expressible in terms of the Taylor series of e^x.

thin berry
knotty ferryBOT
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Coffey 2.0

jade wave
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we DID

thin berry
thin berry
knotty ferryBOT
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Coffey 2.0

thin berry
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$\lim_{n \to \infty} g_n(x)$ is a polynomial for some set of points $(X_0,Y_0),(X_1,Y_1)...$

knotty ferryBOT
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Coffey 2.0

jade wave
thin berry
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it's some integer between 0 and n

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If there's only k points and not infinite then
g_(k-1)(x) works

thin berry
# knotty ferry **Coffey 2.0**

Oh nice, you can easily see how if two X_n s are equal
(meaning the polynomial would have to have two values at one x value, but that's not a function)
then it doesn't work, bc then you end up dividing by 0

thin berry
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They were noticing how 6k+1 returned a lot of primes the other day, I'm assuming they mean like a+bk

native sandal
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there is already a well known theorem

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for it

torpid ridge
thin berry
thin berry
torpid ridge
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"Polynomials that sometimes return primes" are trivial and of no serious interest. "Polynomials that always return primes" would be of great interest if they existed, but they provably do not.

thin berry
torpid ridge
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I don't understand why it's any kind of interest in something so trivial.

thin berry
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It's not trivial to them

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they're learning

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and playing around with numbers

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why stop them?

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they're just having fun

torpid ridge
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Are they? They haven't even stated any concrete condition or conjecture they could be investigating.

torpid ridge
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Okay, but what is a "prime generating polynomial"?

thin berry
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I shouldn't speak for them though

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that's just my guess

torpid ridge
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They were talking about invoking the nth Lucas number, which isn't a polynomial at all. I don't think they even understand what they're doing, which is why I'm critical.

thin berry
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Tbh I'm confused bc now I realize they never said the Lucas numbers were a polynomial

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I think by "the first one" they meant one of their little thoughts about prime generating/ prime checking stuff, and not a prime generating polynomial

thin berry
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ok but, still I think that's not what they were originally saying

native sandal
torpid ridge
steady robin
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Excuse you

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I just for norifs from this chat

steady robin
torpid ridge
steady robin
steady robin
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Like Lucas n is square root of 5 something's

torpid ridge
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They're generated by an exponential!

torpid ridge
steady robin
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Huh

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Wdym no

torpid ridge
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That's wrong.

steady robin
torpid ridge
steady robin
torpid ridge
steady robin
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Look at the screenshot

torpid ridge
steady robin
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And it will give the nth lyrics number

native sandal
torpid ridge
steady robin
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The first one

native sandal
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💀

steady robin
torpid ridge
native sandal
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Verification is trivial given an infinite power source, infinite computational time, and an ideal computing environment.

steady robin
torpid ridge
steady robin
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Euler's prime generating polynomial uses a n

native sandal
torpid ridge
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What the fuck do you think a polynomial is?

steady robin
torpid ridge
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That's not even a little bit correct.

steady robin
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Then idk

torpid ridge
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A polynomial is a function of the form $f(x) = \sum_{n = 0}^k a_n x^n$.

knotty ferryBOT
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Techie Literate

native sandal
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maybe losen up the notations Techie literate he didn't know what polynomials were...

steady robin
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I'm not that dumb

torpid ridge
steady robin
torpid ridge
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a_0 = 41, a_1 = -1, a_2 = 1.

native sandal
thin berry
steady robin
smoky reef
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The normal one is much better