Difference between revisions of "Universal abstraction"

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[[Category Theory]]<ref>William Lawvere, Stephen Schanuel, Conceptual Mathematics: A first introduction to categories, 2nd Edition, Cambridge Press, 2009</ref> is the foundational reasoning mechanism to represent and infer decisions from data. It provides mathematics a universally grounded notation and encoding standard. It is a formal language based on one type of symbol, and one symbol type only, the [[arrow]], or [[hyperlink]].
[[Category Theory]]<ref>William Lawvere, Stephen Schanuel, Conceptual Mathematics: A first introduction to categories, 2nd Edition, Cambridge Press, 2009</ref> is the foundational reasoning mechanism to represent and infer decisions from data. It provides mathematics a universally grounded notation and encoding standard. It is a formal language based on one type of symbol, and one symbol type only, the [[arrow]], or [[hyperlink]].


==Hyperlink Relationships==  
==Wiki's Hyperlink in two directions==  
MediaWiki has two types of built-in hyperlink syntax. One is the curly braces <nowiki>{{}}</nowiki> and the other one is square brackets <nowiki>[]</nowiki>. One can think of curly braces being the hyperlink for pulling information, and square brackets being the hyperlink for pushing information.
    
    
===Pulling { { } }===
===Pulling { { } }===

Revision as of 05:50, 25 June 2021

The core essence of universal abstraction is expanding your scope of awareness to encompass as much content as possible, for the purpose of being able to do more with less. Simplicity allows for automation and scalability.

Page, Services, Files

Category Theory

Category Theory[1] is the foundational reasoning mechanism to represent and infer decisions from data. It provides mathematics a universally grounded notation and encoding standard. It is a formal language based on one type of symbol, and one symbol type only, the arrow, or hyperlink.

Wiki's Hyperlink in two directions

MediaWiki has two types of built-in hyperlink syntax. One is the curly braces {{}} and the other one is square brackets []. One can think of curly braces being the hyperlink for pulling information, and square brackets being the hyperlink for pushing information.

Pulling { { } }

The pulling navigation feature is accomplished by using the curly brackets. All types of commands that are intended to pull in or alter the object page are found inside these brackets.

The simplest and most common method of pulling information is known as transclusion, which simply means to pull information from one page to another, created a fixed relationship between the two pages.

Typically Template pages are specifically designed for transclusion purposes, but its not limited to templates, any and all pages within Mediawiki are able to be transcluded, unless specifically restricted. In order to transclude a page simply follow the command below.

{ { page name } } 

Pushing [ [ ] ]

The pushing navigation feature is accomplished by using square brackets. All types of commands that are intended to push you out of a page are found inside these brackets. When pushing to a page outside the same domain you use one set of brackets and simply input the url inside the brackets, to push to pages within the same domain, or pages found in wikipedia, you use two sets of brackets and simply input the page name.

[ [ Property name : : Property value ] ] = [ [ predicate : : subject ] ] 

Properties can assign varying datatypes

[ [ Category : page name ] ] = [ [ hierarchy : classification ] ]

General Hyperlink Usage

When simply ordering and building the database you will create pushing hyperlink relationships, following an adding directional flow in the form of categories, and properties. If you want to compute or compile information then you will create pulling hyperlink relationships in the form of transclusion, magicwords, pasarfunctions, or other special commands.

Understanding this simple and fundamental use of mediawiki features is what allows this tool to be a perfect candidate for demonstrating Category Theory's ordering and computation methods.

References

  1. William Lawvere, Stephen Schanuel, Conceptual Mathematics: A first introduction to categories, 2nd Edition, Cambridge Press, 2009