MDC-X Theorem: Computational Verification and Ontological Hierarchy

The Mahapatra-Dalvi-Collatz X Theorem (MDC-X Theorem) is not a static mathematical description. It is a dynamic engine that generates topological control invariantsfrom the triadic coefficients (a, b, n)—where a is an odd positive integer (the algebraicmultiplier), b is an odd integer (the parity-sustaining shift), and n is a positive integer (the dissipating starting value). These three coefficients, with their necessary parityconditions (a odd, b odd), produce the generalized Collatz map Ca,b(n) as a necessaryconsequence, not as an external assumption. The map is not assumed; it is produced bythe triadic structure itself.This paper provides complete, deterministic, reproducible computational verificationof every step of the MDC-X Theorem using only standard Python libraries (NumPy,SciPy, Matplotlib). The code demonstrates the unidirectional deductive chain from thetriadic coefficients to number theory, to topology, to arithmetic, to geometry, and finallyto physics

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-19
DOI
https://doi.org/10.5281/zenodo.20290975
Primary Topic
Benford’s Law and Fraud Detection
Type
preprint
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preprint

MDC-X Theorem: Computational Verification and Ontological Hierarchy

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

MDC-X Theorem: Computational Verification and Ontological Hierarchy

Dillip Kumar Mahapatra
preprint en

Abstract

The Mahapatra-Dalvi-Collatz X Theorem (MDC-X Theorem) is not a static mathematical description. It is a dynamic engine that generates topological control invariantsfrom the triadic coefficients (a, b, n)—where a is an odd positive integer (the algebraicmultiplier), b is an odd integer (the parity-sustaining shift), and n is a positive integer (the dissipating starting value). These three coefficients, with their necessary parityconditions (a odd, b odd), produce the generalized Collatz map Ca,b(n) as a necessaryconsequence, not as an external assumption. The map is not assumed; it is produced bythe triadic structure itself.This paper provides complete, deterministic, reproducible computational verificationof every step of the MDC-X Theorem using only standard Python libraries (NumPy,SciPy, Matplotlib). The code demonstrates the unidirectional deductive chain from thetriadic coefficients to number theory, to topology, to arithmetic, to geometry, and finallyto physics

Zenodo (CERN European Organization for Nuclear Research)
KLE Academy of Higher Education and Research (IN)
Benford’s Law and Fraud Detection
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