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April 19, 20260 citationsOpen Access

Algebraic Completeness of Ternary Total Integrals: Topological Conversion from Calculus, Explicit-Implicit Separation, and the ∅-State Operator

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DWDa Wei

Key Points

  • The aim is to propose the Ternary Total Integral as a tool to unify explicit and implicit variables in physical systems.
  • Formally presents the Ternary Total Integral framework.
  • Develops conversion equations using the ∅-state topological operator.
  • Analyzes classical calculus in relation to Ternary Total Integrals.
  • Proves the algebraic completeness of the Total Integral.
  • Shows classical calculus is a low-dimensional approximation at energy escape constant κ→0.
  • Demonstrates effective processing of deterministic deviations through the proposed framework.

Abstract

Traditional calculus, built upon binary logic, is restricted to processing the linear ornonlinear evolution of explicit physical variables, leading to inherent compute gaps whenfacing complex systems with ∅(Null) states. This paper formally proposes the "TernaryTotal Integral," a mathematical tool aimed at unifying explicit (M+, M−) and implicit (∅)variables within physical systems. Research demonstrates that classical calculus is merely alow-dimensional approximation of the Total Integral when the energy escape constant κ→0.By introducing the ∅-state topological operator, this paper provides the conversion equationsbetween the two frameworks and proves the algebraic completeness of the Total Integral inprocessing deterministic deviations within non-symmetric operation logs.

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Cite This Study

Da Wei (2026) studied this question.

synapsesocial.com/papers/69e47376010ef96374d8f443https://doi.org/10.5281/zenodo.19630718
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