Overview of the Axis Model Research Program

The Axis Model is a theoretical physics framework developed across a six-paper suite, with complete mathematical derivations and reproducible Colab notebooks. It organizes particle physics, gauge structure, and gravitation within a single scalar–vector formalism and makes explicit, falsifiable predictions. It is a quantum-consistent, scalar-coherent unification framework spanning particle structure, gauge interactions, and emergent gravity with a full set of reproducible calculations, ready for independent testing. 

The papers all interlock and are organized as follows: paper 1 (classical framework) → 2 (fermion sector) → 3 & 4 (quantum completion and renormalization) → 5 & 6 (gravitational emergence). 

This page summarizes the status of the program, its scope, and its next steps toward independent testing. 

Why the Axis Model Is Different

• Unified framework: A single master Lagrangian connects particle physics, gravity, and cosmology.

• Mathematical rigor: The theory derives the Standard Model fermion sector, gauge structure, BRST-consistent quantum completion, and emergent gravity.

• Computational reproducibility: Every major claim is backed by public Google Colab pipelines (linked in each paper), allowing anyone to run the analysis, swap parameters, and check results.

• Falsifiable predictions: The model specifies pass/fail tests—gravitational lensing suppression, neutrino bifurcation, CKM/PMNS mixing patterns, scalar-modulated G, and CMB signatures.

On Peer Review and Scientific Standing

It is true that the Axis Model has not yet been published in major journals. That reflects editorial gatekeeping and the challenge of introducing unconventional unification frameworks, not a lack of rigor.

• Independent program: Conducted outside institutional funding, published openly on Zenodo and OSF.

• Transparency over gatekeeping: All math, code, and data are public—making it more reproducible than most peer-reviewed work.

• Status: The framework is internally complete and falsifiable. That is the true scientific standard.

What Is Finished vs. What Is Open

Completed / Closed Theoretical Work

• Full fermion-mass and flavor-mixing derivations (CKM + PMNS).

• Geometric origin of the Standard Model gauge group and electroweak breaking.

• Quantum-consistent BRST structure and two-loop renormalization stability of the Axis EFT.

• Path-integral and heat-kernel derivation of the Einstein–Hilbert term and the local Geff (x) map.

• Verified boundedness, gauge-independence, and continuity of the emergent-gravity coupling.

• Reproducible numerical pipelines for lensing, neutrino oscillations, and gravitational-wave envelope recovery.
  
  

Open / Next Phase

• Independent replication and validation by external groups.

• Experimental and observational tests of the model’s predictions
  (environment-dependent Geff, scalar-coherence gravitational shielding, non-singular Masz interiors, neutrino mass bifurcation).

• Extended two-loop RG flow into the full electroweak + color sector (ab initio unification).

• Empirical falsification campaigns using lensing, siren, and oscillation data sets.
  
  

How to Explore the Research

• Foundational Framework: The Axis Model – base field theory and geometric postulates.

• Standard Model Fermion Sector: A Geometric Origin for the SM Fermion Sector – flavor and mixing.

• Quantum Completion of the Axis Model — gauge invariance, BRST, and renormalization consistency

• Quantum Consistency and Renormalization of the Axis Model EFT — full two-loop RG structure and UV completion

• Emergent Gravity: Quantum Gravitational Extension of the Axis Model – scalar-coherent geometry and EH emergence.

• Quantified Gravity: Quantifying Emergent Gravity in the Axis Model – explicit Geff(x) derivation and observational bridge.

Interactive Colab notebooks are provided with each paper where applicable. These allow readers to reproduce key predictions, including quark masses, CKM/PMNS fits, gravitational lensing suppression, and gravitational-wave anomalies. Wherever possible, observational data is drawn directly from public online repositories to ensure transparency and reproducibility. For datasets not suited to direct download, the sources are fully referenced in the respective paper and archived on Zenodo as part of the 

The Axis Model Research Series  

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