The Law of Cumulative Factorial Inheritance and Multi-Branch Recursive Lattice Progressions in Highly Composite and Binary Exponential Int-Fields

This research paper establishes a definitive and comprehensive algebraic paradigm operating within the divisors of composite integers scaling via a sequential binary doubling multi-mesh system (\(\times \)2 progression). By analyzing three distinct evolutionary integer tracks—the Highly Structured Base Channel (\(18\rightarrow 1152\)), the Ternary Balanced Base Channel (\(6\rightarrow 96\)), and the Pure Exponential Binary Channel (\(4\rightarrow 64\))—this paper demonstrates a universal mathematical truth: when an integer transforms through a binary doubling multiplier, the operational architectural lattice of the previous generation is retained perfectly intact as an "Inherited DNA Matrix Core." This paper provides the exact universal algebraic equations, the precise conditional metrics determining fractional node growth (the 3-variable vs. 1-variable expansion), complete step-by-step mathematical proofs across all lines, and advanced high-tech computational applications.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-28
DOI
https://doi.org/10.5281/zenodo.23720623
Primary Topic
Analytic Number Theory Research
Type
article
Field-Weighted Citation Impact
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article

The Law of Cumulative Factorial Inheritance and Multi-Branch Recursive Lattice Progressions in Highly Composite and Binary Exponential Int-Fields

Nandkishor prajapat
1 links
Zenodo (CERN European Organization for Nuclear Research)
Analytic Number Theory Research
article

The Law of Cumulative Factorial Inheritance and Multi-Branch Recursive Lattice Progressions in Highly Composite and Binary Exponential Int-Fields

Nandkishor prajapat
article en

Abstract

This research paper establishes a definitive and comprehensive algebraic paradigm operating within the divisors of composite integers scaling via a sequential binary doubling multi-mesh system (\(\times \)2 progression). By analyzing three distinct evolutionary integer tracks—the Highly Structured Base Channel (\(18\rightarrow 1152\)), the Ternary Balanced Base Channel (\(6\rightarrow 96\)), and the Pure Exponential Binary Channel (\(4\rightarrow 64\))—this paper demonstrates a universal mathematical truth: when an integer transforms through a binary doubling multiplier, the operational architectural lattice of the previous generation is retained perfectly intact as an "Inherited DNA Matrix Core." This paper provides the exact universal algebraic equations, the precise conditional metrics determining fractional node growth (the 3-variable vs. 1-variable expansion), complete step-by-step mathematical proofs across all lines, and advanced high-tech computational applications.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 4%
Analytic Number Theory Research
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