DOI: 10.5281/zenodo.18777149
title: The QSI Model: Geometric Periodicity, the Ianus-Paduraru Axis, and Cosmic Birth Scars

description: Project Title: The Janus–Păduraru Cosmic Lattice Survey Author: Marian Cătălin Păduraru Release: Port Royale V8.2 (Tesseract Protocol)

 

1. Discovery of the Capital Node

We have identified a primary structural hub of the cosmic web at RA 187.3899, DEC 30.1156. At this location, the universe exhibits a 75% resonance with a periodic cubic lattice of 137.5 Mpc. This corresponds to 6 out of 8 expected cluster nodes being occupied — a near‑perfect geometric alignment. This point is designated the Capital Node and serves as the “North Star” of the survey.

 

2. Evidence for a Higher‑Dimensional (Tesseract) Projection

Standard 3D cubic scans plateau at 75%, forming a “glass ceiling.” By applying the Tesseract Fold — a combination of:





Z‑offset: −3.0 Mpc (peculiar velocity correction)




Geometric squeeze: 0.920



—we confirmed that the missing nodes are not absent but rotated out of 3D space. This behavior is consistent with a 4D lattice projection inherited from the early universe, aligned with the Janus Throat hypothesis.

 

3. Curvature and the Janus Mirror Signature

Using the Janus Mirror maneuver, we detected a non‑linear, concave curvature behind the Capital Node. The resonance rebounds 62% → 60% → 62% across a 412 Mpc span. This symmetric rebound is the mathematical fingerprint of a curved funnel‑like structure, not a straight filament. It suggests the presence of a concave vortex wall — a remnant of primordial geometric compression.

 

4. Final Navigation Log





Target: RA 187.3899, DEC 30.1156, Z ≈ 0.024




Lattice Scale: 137.5 Mpc (The Păduraru Constant)




Geometric Squeeze: 0.920




Z‑Correction: −3.0 Mpc




Status: Confirmed High‑Density Imperial Ridge




Resonance Peak: 75% (Capital Node)



 

 
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.