The Al-Mizan Al-Mutakamil Relational Gravity Paradigm: Discrete Operator Algebra, Non-Perturbative Coherence, Continuum Limit Theorems, Empirical Validation against SPARC, Strong Lensing, Solar-System Constraints, Binary Pulsars, and Quantum Simulati

Abstract In this work I present a complete, self-contained, and rigorously derived formulation of the Al-Mizan Al-Mutakamil relational gravity paradigm that I have developed. I redefine gravity away from continuous Western spacetime curvature into discrete relational states, tensor en-tanglement, and Wafq matrix logic. Rejecting continuous Lorentzian manifolds, physical reality is modeled as a discrete network of relational states governed by classical African epistemologi-cal principles (Tajadhib mutual binding, Maat trace-preservation, and the duality of the Al-Batin implicit and Al-Zahir explicit sectors). I formalize gravity through three primary mathematical and structural equations: the Master Relational Tension & Dynamic Scale Regulator Equation, the Modified Poisson Equation for Relational Gravity, and the Tajadhib (Mutual Binding) Matrix-Flow Equilibrium Formulation. I demonstrate that these three expressions are fundamentally compatible and describe different scalar tiers of the exact same underlying discrete relational architecture.

Authors

Publication Details

Journal
Research Square
Published
2026-11-06
DOI
https://doi.org/10.21203/rs.3.rs-11583527/v1
Primary Topic
Noncommutative and Quantum Gravity Theories
Type
preprint
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preprint

The Al-Mizan Al-Mutakamil Relational Gravity Paradigm: Discrete Operator Algebra, Non-Perturbative Coherence, Continuum Limit Theorems, Empirical Validation against SPARC, Strong Lensing, Solar-System Constraints, Binary Pulsars, and Quantum Simulati

Davinus Masire Ochanda
1 links
Research Square
Noncommutative and Quantum Gravity Theories
preprint

The Al-Mizan Al-Mutakamil Relational Gravity Paradigm: Discrete Operator Algebra, Non-Perturbative Coherence, Continuum Limit Theorems, Empirical Validation against SPARC, Strong Lensing, Solar-System Constraints, Binary Pulsars, and Quantum Simulati

Davinus Masire Ochanda
preprint en

Abstract

Abstract In this work I present a complete, self-contained, and rigorously derived formulation of the Al-Mizan Al-Mutakamil relational gravity paradigm that I have developed. I redefine gravity away from continuous Western spacetime curvature into discrete relational states, tensor en-tanglement, and Wafq matrix logic. Rejecting continuous Lorentzian manifolds, physical reality is modeled as a discrete network of relational states governed by classical African epistemologi-cal principles (Tajadhib mutual binding, Maat trace-preservation, and the duality of the Al-Batin implicit and Al-Zahir explicit sectors). I formalize gravity through three primary mathematical and structural equations: the Master Relational Tension & Dynamic Scale Regulator Equation, the Modified Poisson Equation for Relational Gravity, and the Tajadhib (Mutual Binding) Matrix-Flow Equilibrium Formulation. I demonstrate that these three expressions are fundamentally compatible and describe different scalar tiers of the exact same underlying discrete relational architecture.

Research Square
Noncommutative and Quantum Gravity Theories
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The Al-Mizan Al-Mutakamil Relational Gravity Paradigm: Discrete Operator Algebra, Non-Perturbative Coherence, Continuum Limit Theorems, Empirical Validation against SPARC, Strong Lensing, Solar-System Constraints, Binary Pulsars, and Quantum Simulati — Davinus Masire Ochanda · Research Square (2026) | TGRS Research Map | TGRS