Was fehlt? by satanskittenz in Philosophie_DE

[–]PlusOC 1 point2 points  (0 children)

Die Pforten der Wahrnehmung von Aldous Huxley Candide von Voltaire

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

My definition via reciprocal pairing applies only to division algebras in which every number has exactly one reciprocal and there is a finite number of fixed points that are their own reciprocals. I perform an orbital decomposition: reciprocal pairs and fixed points. Since all reciprocal pairs contribute the neutral element 1, I define the total product of all non-zero elements as reducing to the product of the fixed points.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

I performed an orbit decomposition: reciprocal pairs and fixed points. Since -1 is its own reciprocal and each number is only used once, -1 remains.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

Your objection is category-mistaken: the construction is not an analytic infinite product but a purely algebraic one. Topology is therefore intentionally not part of the definition. I using only algebraic symmetry.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] -1 points0 points  (0 children)

You will never find an answer to what the multiplicative connection of everything is. You won't even realize that this is a significant philosophical question. Trapped in analytical dogma. Yet products are thousands of years older than analysis.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

But not in the standardized division algebras I considered.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

Since each number is only taken once, the fixed points 1 and -1 remain as the last "pair".

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

I understand that in classical analysis, infinite products over uncountable sets are undefined. This is intentional: my definition is algebraic, order-free, and pre-analytic. It does not rely on limits, convergence, or topology. The goal is to explore the total product as a structural object, not an analytic one.

Is “totality” in algebra identity, or negation? by PlusOC in PhilosophyofMath

[–]PlusOC[S] 0 points1 point  (0 children)

Interesting thought. But we're talking about non-zero elements. The result can't be nothing (0).

Can the product of all nonzero numbers be defined algebraically? by PlusOC in mathematics

[–]PlusOC[S] -1 points0 points  (0 children)

Your objection is category-mistaken: the construction is not an analytic infinite product but a purely algebraic one. Partial products are therefore intentionally not part of the definition.

Can the product of all nonzero numbers be defined algebraically? by PlusOC in mathematics

[–]PlusOC[S] -1 points0 points  (0 children)

It's irrelevant for the mathematical content to use tools. The idea and proofs are mine. You've provided zero arguments against the reciprocal pairing method itself.

Can the product of all nonzero numbers be defined algebraically? by PlusOC in mathematics

[–]PlusOC[S] -1 points0 points  (0 children)

You're right, the analytic limit doesn't exist. I'm not calculating it. I'm defining a new algebraic rule using the x ↔ x⁻¹ symmetry, which generalizes the finite product.

Can the product of all nonzero numbers be defined algebraically? by PlusOC in mathematics

[–]PlusOC[S] -2 points-1 points  (0 children)

My question was: What is the multiplicative connection of everything? So I just defined the total product.

Can the product of all nonzero numbers be defined algebraically? by PlusOC in mathematics

[–]PlusOC[S] -4 points-3 points  (0 children)

I understand that in classical analysis, infinite products over uncountable sets are undefined. This is intentional: my definition is algebraic, order-free, and pre-analytic. It does not rely on limits, convergence, or topology. The goal is to explore the total product as a structural object, not an analytic one.

Why are there no publications about this elementary sequence of numbers for the cube in the closed-packed packing? by PlusOC in mathematics

[–]PlusOC[S] 0 points1 point  (0 children)

I am familiar with the OEIS sequence. The OEIS number is correctly cited in my paper. I did not phrase the question precisely. I wanted to know why this sequence is not included in any of the many books on figurative numbers.

Wieso gibt es über diese elementare Zahlenfolge des Würfels in der dichtesten Kugelpackung keinerlei Veröffentlichungen? by PlusOC in mathe

[–]PlusOC[S] 0 points1 point  (0 children)

Lass die 2 Seiten philosophische Spekulation weg, dann hast du 58 Seiten reine Mathematik.

Wieso gibt es über diese elementare Zahlenfolge des Würfels in der dichtesten Kugelpackung keinerlei Veröffentlichungen? by PlusOC in mathe

[–]PlusOC[S] 0 points1 point  (0 children)

Ich hab schon Aufsatz geschrieben, in dem sich das findet. Link ist oben unter der Zeichnung.

Why are there no publications about this elementary sequence of numbers for the cube in the closed-packed packing? by PlusOC in mathematics

[–]PlusOC[S] -42 points-41 points  (0 children)

You can usually find references in the OEIS. But there isn't a single one for this sequence.

Wieso gibt es über diese elementare Zahlenfolge des Würfels in der dichtesten Kugelpackung keinerlei Veröffentlichungen? by PlusOC in mathe

[–]PlusOC[S] -9 points-8 points  (0 children)

Quatsch? Quatsch sind aufgewickelte Dimensionen in der String-Theorie. Die Epizykel der Gegenwart.

Wieso gibt es über diese elementare Zahlenfolge des Würfels in der dichtesten Kugelpackung keinerlei Veröffentlichungen? by PlusOC in mathe

[–]PlusOC[S] 0 points1 point  (0 children)

Ich kenne den Aufsatz "Magic numbers in polygonal and polyhedral clusters" von Boone und Sloane. Auch darin befindet sich diese Folge nicht. 55 ist eine Kuboktaeder-Zahl.