User:Sure Beae: Difference between revisions

From Wikipedia, the free encyclopedia

Content deleted Content added


 

Line 26: Line 26:

:<math>B_x=2\tau^{-x}\Pi\left(x\right)\cos\left(\frac{\tau x}{4}\right)\frac{B_{1-x}}{1-x}</math>

:<math>B_x=2\tau^{-x}\Pi\left(x\right)\cos\left(\frac{\tau x}{4}\right)\frac{B_{1-x}}{1-x}</math>

:Euler Product

:Euler Product

:<math>\frac{\partial}{\partial x} \left( \nabla^{-1} x^a \right)\bigg|_{x=0} =

:<math>\frac{\partial}{\partial x} \left( \nabla^{-1} x^ \right)\bigg|_{x=0} =

\begin{cases}

\begin{cases}

-s \prod_{p} \frac{1}{1-p^{s-1}} & \text{for } s < 0 \\

-s \prod_{p} \frac{1}{1-p^{s-1}} & \text{for } s < 0 \\

-2\tau^{-x}\Pi\left(x\right)\cos\left(\frac{\tau x}{4}\right)\prod_{p}^{ }\frac{1}{1-p^{-x}} & \text{for } s > 1

-2\tau^{-}\Pi\left(\right)\cos\left(\frac{\tau }{4}\right)\prod_{p}^{ }\frac{1}{1-p^{-}} & \text{for } s > 1

\end{cases}

\end{cases}

</math>

</math>


Latest revision as of 07:49, 12 October 2025

My website is https://foil.town/
I’m interested in maths, FreeBSD/HardenedBSD, cybersecurity, networking, and biology. Specifically, discrete calculus, and its relations/intersections with Riemann-Liouville fractional calculus, analytic number theory, polypi (offset polygamma) function (see A generalized polygamma function by Oliver Espinosa and Victor H. Moll for a related function with nice analytic properties), the generalized Bernoulli numbers, and so on.
Here is a graph based on the YouTube video How to Extend the Sum of Any* Function

https://www.desmos.com/calculator/xjzu4jqghl

Here is the exact version that isn’t using the difference between two divergent summations

https://www.desmos.com/calculator/y2i9qmoqjn

Here is a graph of the famous Faulhaber’s formula, which is misnamed as Faulhaber never wrote or interacted with it directly.

https://www.desmos.com/calculator/ywv6hjiq0l

Hasse’s Newton-like approx

https://www.desmos.com/calculator/eyz2xo1fa8

A fun game I would play when I was in school, doing complex mappings using the zeros of 3D trig-based functions, here’s 1/z as example

https://www.desmos.com/3d/weknvqvovz

The easiest way to contact me on other platforms is ‘sure’ on IRC or @bord:chat.foil.town on matrix.
Notes to myself

https://www.desmos.com/calculator/ppmuwcuhaw

Reflection formula
B x = 2 τ − x Π ( x ) cos ⁡ ( τ x 4 ) B 1 − x 1 − x {\displaystyle B_{x}=2\tau ^{-x}\Pi \left(x\right)\cos \left({\frac {\tau x}{4}}\right){\frac {B_{1-x}}{1-x}}}
Euler Product
∂ ∂ x ( ∇ − 1 x s ) | x = 0 = { − s ∏ p 1 1 − p s − 1 for  s < 0 − 2 τ − s Π ( s ) cos ⁡ ( τ s 4 ) ∏ p

1 1 − p − s for  s > 1 {\displaystyle {\frac {\partial }{\partial x}}\left(\nabla ^{-1}x^{s}\right){\bigg |}_{x=0}={\begin{cases}-s\prod _{p}{\frac {1}{1-p^{s-1}}}&{\text{for }}s<0\\-2\tau ^{-s}\Pi \left(s\right)\cos \left({\frac {\tau s}{4}}\right)\prod _{p}^{}{\frac {1}{1-p^{-s}}}&{\text{for }}s>1\end{cases}}}

Leave a Comment

Your email address will not be published. Required fields are marked *

Exit mobile version