Resolving the Continuum Hypothesis via Structural Mandate: Derivation of LCAs from the i = c Coherence Axiom

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Authors: WAN AZHAR WAN AHMAD
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Abstract

We address the fundamental Continuum Hypothesis (CH) controversy, which reveals an irresolvable ambiguity within standard set theory (ZFC). The conflict, established by the consistency proofs of Gödel (CH) and Cohen (¬CH), requires a foundationally external mandate to resolve. We prove this mandate is provided by the Structural Unification Theory (SUT) Axiom of Existential Identity (i = c), which enforces the non-trivial state P̸ = NP. This core identity necessitates an absolute structural boundary, defined by the c4 = 12 Cadence Limit (The Complexity Budget). Management of this finite budget requires the existence of SUT Third-Order C-Constants (CT,CV), which are formally derived to be isomorphic to the Large Cardinal Axioms (LCAs). These LCAs function as mandatory computational constraints required to prevent collapse into the P = NP singularity. The resulting structural complexity of themandated LCAs is inconsistent with Gödel’s minimal P-time counting model (L), thereby structurally invalidating CH and computationally forcing the resolution to the larger cardinality: Cardinality of Continuum => ℵ1. Counting the Books and Shelves (Numbers and Cardinals). The entire counting process begins with the Stock Take, which is the master plan dictating the methodology for performing inventory checks (counting books versus measuring the classification space). This plan operates under Total Operational Budget, which dictates the maximum number of inventory audit cycles allowed daily (the c4 = 12 budget). This workflow is managed by the Librarian and Shelf Maker (CT,CV) who enforce the Counting Protocols (LCAs). This framework is necessary because it ensures the inventory system maintains data integrity ie account ability, and prevents failure of the Inventory System, and guarantees the counting methodology can process the required, complex data volume.

Fields of Study & Subjects

Advanced Topology and Set Theory Computability Logic AI Algorithms Mathematical and Theoretical Analysis

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
14 January 2026