The Theory of Accessibility

The Theory of Accessibility – V0.4 The Theory of Accessibility is a mathematical framework developed to distinguish existence from accessibility. The theory assumes that the complete structure is present within a universal structure space, while its accessibility depends on the accessibility state. Version V0.4 consolidates and further develops the mathematical core of the theory. A central element of this version is the Universal Accessibility Reconstruction Principle, which formalizes the idea that a structure that is inaccessible in one accessibility state is not necessarily absent or nonexistent, but may become accessible in another state. When accessibility is non-zero, the original structure can be reconstructed from its accessible representation. V0.4 also generalizes the accessibility function so that negative values are permitted. The mathematically critical case is therefore not the sign of accessibility, but the zero state, which represents a singular or inaccessible representation. Another central component of this version is the generalized asymptotic accessibility criterion. This provides a framework for examining the long-term behavior of accessibility along mathematical trajectories and distinguishes finite-step invertibility from asymptotic accessibility stability. The theory is also extended from scalar representations to complete mathematical structures. This is important because many mathematical objects cannot be adequately represented by simple scalar multiplication. The framework therefore distinguishes the fundamental accessibility concept from its structural representation. The V0.4 framework has been examined in relation to a broad range of major open mathematical problems, including the Collatz conjecture, Riemann Hypothesis, Yang–Mills mass gap, Hodge conjecture, Birch and Swinnerton-Dyer conjecture, Goldbach conjecture, twin prime conjecture, Legendre’s conjecture, Landau’s n²+1 problem, abc conjecture, Beal conjecture, the odd perfect number problem, and Schanuel’s conjecture. These examinations do not claim that the accessibility framework alone constitutes proofs of these open problems. Rather, they test whether the mathematical structures underlying the problems can be represented within the accessibility framework and identify where scalar accessibility is sufficient and where full structural accessibility is required. Version V0.4 therefore represents a consolidated mathematical formulation of the Theory of Accessibility, with particular emphasis on existence, accessibility, reconstruction, structural representation, and asymptotic behavior.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-25
DOI
https://doi.org/10.5281/zenodo.22959869
Primary Topic
Benford’s Law and Fraud Detection
Type
preprint
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The Theory of Accessibility

Tamás Bánfi
Zenodo (CERN European Organization for Nuclear Research)
Benford’s Law and Fraud Detection
preprint

The Theory of Accessibility

Tamás Bánfi
preprint en

Abstract

The Theory of Accessibility – V0.4 The Theory of Accessibility is a mathematical framework developed to distinguish existence from accessibility. The theory assumes that the complete structure is present within a universal structure space, while its accessibility depends on the accessibility state. Version V0.4 consolidates and further develops the mathematical core of the theory. A central element of this version is the Universal Accessibility Reconstruction Principle, which formalizes the idea that a structure that is inaccessible in one accessibility state is not necessarily absent or nonexistent, but may become accessible in another state. When accessibility is non-zero, the original structure can be reconstructed from its accessible representation. V0.4 also generalizes the accessibility function so that negative values are permitted. The mathematically critical case is therefore not the sign of accessibility, but the zero state, which represents a singular or inaccessible representation. Another central component of this version is the generalized asymptotic accessibility criterion. This provides a framework for examining the long-term behavior of accessibility along mathematical trajectories and distinguishes finite-step invertibility from asymptotic accessibility stability. The theory is also extended from scalar representations to complete mathematical structures. This is important because many mathematical objects cannot be adequately represented by simple scalar multiplication. The framework therefore distinguishes the fundamental accessibility concept from its structural representation. The V0.4 framework has been examined in relation to a broad range of major open mathematical problems, including the Collatz conjecture, Riemann Hypothesis, Yang–Mills mass gap, Hodge conjecture, Birch and Swinnerton-Dyer conjecture, Goldbach conjecture, twin prime conjecture, Legendre’s conjecture, Landau’s n²+1 problem, abc conjecture, Beal conjecture, the odd perfect number problem, and Schanuel’s conjecture. These examinations do not claim that the accessibility framework alone constitutes proofs of these open problems. Rather, they test whether the mathematical structures underlying the problems can be represented within the accessibility framework and identify where scalar accessibility is sufficient and where full structural accessibility is required. Version V0.4 therefore represents a consolidated mathematical formulation of the Theory of Accessibility, with particular emphasis on existence, accessibility, reconstruction, structural representation, and asymptotic behavior.

Zenodo (CERN European Organization for Nuclear Research)
Benford’s Law and Fraud Detection
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