#Prime number theories
152 messages · Page 1 of 1 (latest)
Made ts cuz math discussion was getting flooded by my useless yapping
Anyway
So first one is
( L(n) - n² ) + N
Lemme try it out a bit
Aight it's broken
Now I'm js coming up with smth
24 * (L(n) - n²)
It's impossible to have a prime-generating polynomial.
It's provably impossible.
what is L(n)
Nth Lucas number
Maybea
U never know
It's only proved that it's probably robably impossible
there is no probably impossible...
U can't prove it's impossible
- we are already close to making one
We only need to reverse a equation
It doesn't have to generate primes consistently
The congruence
ahhhh so something like 6n - 1?
Yeah but it has Lucas numbers
Wait u gave me a idea but it's probably not going to work
So it's about the congruence L(n) = 1 ( mod n)
Pretend that the equals has 3 lines
It isn't unique to the primes, but it will always hold true for the primes
The Lucas numbers aren't generated by a polynomial.
Yes it does, otherwise what's the point?
If that's your standard, the "polynomial" y = x literally generates every prime.
I mean here is better formula that what he will give 2n -1 has all primes greater than 2
😭
Yes lol why i made this, cuz I didn't want to fil math discussion with yapping lol
More consistently than that
No bro,I said L(n) mod n = 1
Yal do I delete this discussion nun is happened anyway
Except you just said consistency isn't a factor.
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.
If the polynomial is degree Infinity it's possible
A "polynomial" of "degree infinity" isn't a polynomial.
well yeah, but I think they meant that in what they thought polynomial meant
No, they think the Lucas number function is a polynomial.
no I'm saying I think their definition of polynomial is wrong
I agree with that much.
By a definition that includes "degree Infinity", the Lucas numbers are a polynomial
or rather, they have a polynomial that is equal to them at integer values
ofc there's infinitely many polynomials that satisfy that
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.
I believe it's $(\frac{1+\sqrt{5}}{2})^x+(\frac{1-\sqrt{5}}{2})^x$
Coffey 2.0
There's a way to make an infinite polynomial that goes through any countable set of numbers that pass the vertical line test, I think
$g_n(x)=g_{n-1}(x)+(Y_n-g_{n-1}(X_n))\prod_{k=0}^{n-1}\frac{x-X_k}{X_{n}-X_k}$
$g_0(x)=Y_0$
Here it is
Coffey 2.0
$\lim_{n \to \infty} g_n(x)$ is a polynomial for some set of points $(X_0,Y_0),(X_1,Y_1)...$
Coffey 2.0
and whats the degree of g_n unless (Xi, Yi) are already a set of form (Xi, P(Xi)) for some polynomial P?
g_n is at most degree n
it's some integer between 0 and n
If there's only k points and not infinite then
g_(k-1)(x) works
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
Oh I think they mean polynomials that sometimes generate primes
They were noticing how 6k+1 returned a lot of primes the other day, I'm assuming they mean like a+bk
then what he is doing is useless
there is already a well known theorem
for it
y = x returns literally every prime.
yeah
they're doing it for fun I think
"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.
yeah it's not serious interest
^
I don't understand why it's any kind of interest in something so trivial.
It's not trivial to them
they're learning
and playing around with numbers
why stop them?
they're just having fun
Are they? They haven't even stated any concrete condition or conjecture they could be investigating.
^
Okay, but what is a "prime generating polynomial"?
^
I shouldn't speak for them though
that's just my guess
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.
Tbh I'm confused bc now I realize they never said the Lucas numbers were a polynomial
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
Oh nvm
ok but, still I think that's not what they were originally saying
i think they are probably doing test to some large number and say it generates primes
We don't know because they're that bad at saying what they mean, which means they're bad at math.
Bruh I was just posting little uselles polynomials in this channels it ain't that deep
Except 1) they aren't polynomials if you're using Lucas numbers, 2) you're claiming these are prime generating polynomials without elaborating on what that means.
So do I say what it means?
But aren't Lucas numbers generated by a polynomial?
No!
Like Lucas n is square root of 5 something's
They're generated by an exponential!
No.
That's wrong.
No. That is just wrong.
Why's it wrong
How is it right?
Look at the screenshot
I did. That doesn't answer my question.
Just try to use the polynomial
And it will give the nth lyrics number
🤔
Which polynomial??? An infinite family of them is described!
The one in the screenshot
The first one
thats it he said do it
💀
Lol
That's not a polynomial.
Verification is trivial given an infinite power source, infinite computational time, and an ideal computing environment.
Just change n
If n changes it's not a fucking polynomial.
Euler's prime generating polynomial uses a n
🤡🤦♂️
What the fuck do you think a polynomial is?
Formula with variable
Then idk
A polynomial is a function of the form $f(x) = \sum_{n = 0}^k a_n x^n$.
Techie Literate
maybe losen up the notations Techie literate he didn't know what polynomials were...
I'm not that dumb
You did not, in fact, know what a polynomial was.
But why is n²-n+41 a polynomial?
... because it has the required form.
a_0 = 41, a_1 = -1, a_2 = 1.
bro got sad
you're confusing polynomial with function
Oh
I don’t even think it’s a good definition for a function though
The normal one is much better