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Ontology:Q28: Difference between revisions

From Philosophical Research
copy or update fake Item from Q25
 
Usage notes
 
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<dl class="wikitable hue">
<dl class="wikitable hue">
{{HueClaim|P=item type| {{Template:Z0}} }}
{{HueClaim|P=item type| {{Template:Z0}} }}
{{HueRoster|P={{Ontology:PPPA/L}}| {{Ontology:Q26}} }}
{{HueRoster|P={{Ontology:PPPA/L}}| {{Ontology:Q28}} }}
{{HueRoster|P={{Ontology:PPPA}}| signifier containing arrangement of signifiers | signifiers arranged into mathematical equation with operators }}
{{HueRoster|P={{Ontology:PPPA}}| signifier containing arrangement of signifiers | signifiers arranged into mathematical equation with operators }}
{{HueRoster|P={{Ontology:P42}}| -- }}  <!-- en: QID references -->
{{HueRoster|P={{Ontology:P42}}| -- }}  <!-- en: QID references -->
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<dl class="wikitable hue data_motifs">
<dl class="wikitable hue data_motifs">
{{HueClaim|P=appears in work| -- |OP=with context| definition }}
{{HueClaim|P=appears in work| [[Philosophical Research:MDem/4.3/6951 plus|MDem 4.3/6951 plus]] |OP=with context| definition }}
</dl>
</dl>


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== Usage notes ==


[[Category:Structuralist linguistics ontology]]
A signifier equation is a sign expressed in the form of "A = B + C", or such an equation containing any number of signifier terms and operators which combine them together. For any given declarative proposition, such as "An apple is a red fruit", the proposition can be rearranged as "apple = fruit + red" or "<span aria-label="apple = set of fruit, red">apple = {fruit, red}</span>". More than this, signifier equations can be nested into other signifier equations: "<span aria-label="apple = set of two sets: set of tree, branch, flower, set of cranberry, ripe, color">apple = { {tree,branch,flower}, {cranberry,ripe,color} }</span>".
 
The basic purpose of signifier equations is to formalize the notion of defining a signifier so that it can be used by ordinary computer programs which are not neural networks, as with [[:Category:Wavebuilder ontology|Wavebuilder]]. In turn, this allows for the possibility of thinking of signifiers as something other than language <i>per se</i> — if we pick our signifiers very carefully, we can effectively use them as very simple scientific models of real-world processes, or some other kind of restricted model of physics-based systems, such as an ontology which is capable of representing interactions between the rules of a card game. The difference between language and mathematics is much smaller than it would appear; if the concepts of language are used precisely enough for the purposes of some particular application, sentences themselves effectively become capable of certain kinds of propositional logic where the words or claims inside the sentences can be [[Philosophical Research:MDem/5.1r/1101 differentiate|interacted with each other to reveal possible contradictions or pieces of the conclusion]].
 
[[:Category:Wavebuilder ontology|Wavebuilder]] implements signifier equations mostly in a classic form of "<span aria-label="A = set of B, C">A = {B, C}</span>", in order to turn them into [[Philosophical Research:MDem/5.1r/1101 differentiate|wave machine]] tables and focus on the simple concept of finding the most "obvious" result of two components or propositions. Dictionary files can be constructed different ways or from different pieces, allowing for different ontologies of what elements or Items combine to produce what. (On Litho<em>graph</em>ica, where there is only one set of Items, the strategy is simply to create parallel sets of Items that stack up into different conceptual models.) No result is truly canonical; the purpose of combinations is to test the strength of previous combinations as much as it is to discover new results. This allows Wavebuilder combinations to function effectively as a tool for creativity and [[Ontology:Q99|meta-ontological]] reasoning.
 
 
[[Category:Structuralist linguistics ontology]] [[Category:Wavebuilder mechanics ontology]]

Latest revision as of 12:10, 24 June 2025

  1. pronounced [Z0] signifier equation 1-1-1

Core characteristics[edit]

item type
Z0 1-1-1
pronounced [P] label [string] (L)
pronounced [Z0] signifier equation 1-1-1
pronounced [P] alias (mis) [string]
signifier containing arrangement of signifiers
signifiers arranged into mathematical equation with operators
QID references [Item] 1-1-1
--
color swatch references [Item]
mathematical operator
case of [Item]
--
super-case of [Item]
ontological model

Use in thesis portals[edit]

appears in work
MDem 4.3/6951 plus
with context
definition

Wavebuilder combinations[edit]

pronounced [P] pronounced Wavebuilder: forms result [Item]
--
along with [Item]
--
forming from [Item]
--
--
--

Usage notes[edit]

A signifier equation is a sign expressed in the form of "A = B + C", or such an equation containing any number of signifier terms and operators which combine them together. For any given declarative proposition, such as "An apple is a red fruit", the proposition can be rearranged as "apple = fruit + red" or "apple = {fruit, red}". More than this, signifier equations can be nested into other signifier equations: "apple = { {tree,branch,flower}, {cranberry,ripe,color} }".

The basic purpose of signifier equations is to formalize the notion of defining a signifier so that it can be used by ordinary computer programs which are not neural networks, as with Wavebuilder. In turn, this allows for the possibility of thinking of signifiers as something other than language per se — if we pick our signifiers very carefully, we can effectively use them as very simple scientific models of real-world processes, or some other kind of restricted model of physics-based systems, such as an ontology which is capable of representing interactions between the rules of a card game. The difference between language and mathematics is much smaller than it would appear; if the concepts of language are used precisely enough for the purposes of some particular application, sentences themselves effectively become capable of certain kinds of propositional logic where the words or claims inside the sentences can be interacted with each other to reveal possible contradictions or pieces of the conclusion.

Wavebuilder implements signifier equations mostly in a classic form of "A = {B, C}", in order to turn them into wave machine tables and focus on the simple concept of finding the most "obvious" result of two components or propositions. Dictionary files can be constructed different ways or from different pieces, allowing for different ontologies of what elements or Items combine to produce what. (On Lithographica, where there is only one set of Items, the strategy is simply to create parallel sets of Items that stack up into different conceptual models.) No result is truly canonical; the purpose of combinations is to test the strength of previous combinations as much as it is to discover new results. This allows Wavebuilder combinations to function effectively as a tool for creativity and meta-ontological reasoning.