DOI: 10.5281/zenodo.18776706
title: The QSI Model: Geometric Periodicity, the Ianus-Paduraru Axis, and Cosmic Birth Scars

description: The QSI Model explores large-scale geometric periodicity in the cosmic web, focusing on the Ianus–Păduraru axis and its possible connection to early-universe geometric inheritance (“cosmic birth scars”).

This dataset contains Python code, analysis scripts, and figures used to reconstruct and scan 3D galaxy cubes, measure local density, and search for preferred directions in large-scale structure.

The current release includes the Port Royale axis refinement, where a micro-jitter optimization procedure achieved a peak local resonance of 70.56% at a locked scale of 137.5 Mpc. These results support the presence of a stable, anisotropic axis in the galaxy distribution, consistent with the Janus–Păduraru geometric hypothesis.

 
description: TECHNICAL SPECIFICATION: QSI MODEL & IANUS-PADURARU AXIS ANALYSIS

1. OVERVIEW

This dataset contains the software engine and coordinate parameters for the QSI (Quantum Symmetry Index) model of the cosmic web. It identifies a primary anisotropic alignment—the Ianus-Paduraru Axis—linking the Dipole Repeller to the Great Attractor.

2. INCLUDED SOFTWARE (QSI_Verification_Engine.py)

The provided Python script performs the following audits:





Lomb-Scargle Periodicity: Identifies repeating "spikes" in galactic redshift distribution, specifically searching for the $4/\pi$ resonant gear.




Symmetry Audit (S-Score): Compares neighbor counts at specific cubic scales (~127 Mpc and ~325 Mpc) against a random Poisson distribution.




Janus Evolution Curve: Maps the "tilt" of galaxy alignment across redshift bins ($z=0$ to $z=7$) to identify the decay of the Janus effect over cosmic time.



3. KEY COORDINATES (THE AXIS)





Primary Axis (Lupus): $Lon: 225, Lat: -27$ (Galactic)




Alignment Strength: The code identifies an asymmetry bias in deep-space catalogs (JWST/COSMOS-Web) that exceeds random fluctuations ($P < 0.05$).



4. HOW TO REPRODUCE





Download the .py script and the attached ZIP data.




Run the analyze_qsi_periodicity function using SDSS-IV or JWST DR1 catalogs.




Verify the 90-degree angular spike and the $4/\pi$ oscillation peaks.








 
description: The initial analysis yields a deviation of $\sigma = -1.40$ at the specified coordinates $(225^\circ, -27^\circ)$. While this sits below the $3\sigma$ threshold for a definitive anomaly, it points towards a systematic under-density aligned with the 'Axis of Evil'.

I hypothesize that the Large-Scale Structure (LSS) is transitioning into a Diamond-type Cubic Lattice as the universe cools. This is not a random distribution, but a geometric crystallization of the Cosmic Web. The -1.40 sigma value likely results from measuring a 'void' space between the lattice nodes. Future updates will focus on the Radial Density Periodicity to identify the repeating nodes of this cosmic crystal.
description: This work uses 3D comoving coordinates from galaxy surveys, cKDTree nearest-neighbor searches for local density classification, and cube-based sampling of the cosmic web.

The code implements: – construction of galaxy cubes – density-based corner classification – axis scanning and resonance scoring – micro-jitter perturbations around candidate axes

The Port Royale refinement uses small angular perturbations around a candidate axis at a fixed scale of 137.5 Mpc to locate a local maximum in resonance, interpreted as a highly aligned filament spine.