Pisot Dimensional Theory | Stephanie Alexander · 2026
This repository applies the Omega Institute's AutoMath methodology — Derive, Discover, Name — to the polynomial pair at the unique Pisot boundary of the family xⁿ = x + 1:
P3: x³ − x − 1 = 0 → ρ = 1.32472 (plastic constant, 3D classical sector)
P4: x⁴ − x − 1 = 0 → Q = 1.22074 (quartic root, 4D quantum sector)
Lock: N(ρQ) = −1 → algebraic unit norm identity (proved)
95 theorems across 10 branches of mathematics, all derived from these three axioms.
| AutoMath (Omega Institute) | PDT-AutoMath | |
|---|---|---|
| Seed polynomial | x² = x + 1 (n=2) | x³=x+1 AND x⁴=x+1 (n=3,4) |
| Roots | φ = 1.61803 (golden ratio) | ρ = 1.32472, Q = 1.22074 |
| Additional axiom | none | N(ρQ) = −1 (proved) |
| Compositum degree | 2 | 12 |
| Unit group rank | 1 | 5 (Dirichlet) |
| Theorems | ~2,350 (Lean 4) | 95 (Python, 95/95 verified) |
| Physics predictions | none | 89 at 0.75% mean error |
The n=2 seed (AutoMath's x²=x+1) is the special case just below the Pisot boundary.
PDT uses the two members straddling the boundary — where classical physics meets quantum physics.
| Branch | Name | Theorems |
|---|---|---|
| I | Core Algebra | 12 |
| II | Norm Theory — The Lock N(ρQ)=−1 | 12 |
| III | Integer Sequences (Padovan, Perrin) | 8 |
| IV | Convergence and Spectral Theory | 11 |
| V | Compositum Structure and Unit Group | 6 |
| VI | Elliptic Curves and L-functions | 9 |
| VII | Dynamics and Substitution Systems | 6 |
| VIII | Arithmetic Geometry | 7 |
| IX | Physics Staircase (coupling constants) | 14 |
| X | Golden Ratio and Fibonacci Connections | 10 |
| Total | 95 |
Run in Google Colab — no installation needed:
# Install dependencies
pip install sympy numpy
# Run all 10 branches
python PDT_AutoMath.py
# Run a single branch — set BRANCH = 2 in the CONFIG block at the top
python PDT_AutoMath.pyN(ρ) = +1 (ρ is a positive-norm unit — classical, Pisot, self-dual)
N(Q) = −1 (Q is a negative-norm unit — quantum, non-Pisot, anti-self-dual)
N(ρQ) = −1 (the algebraic lock — proved in degree-12 compositum)
The unit norm identity N(ρQ) = −1 is not a numerical observation. It is a proved theorem, verifiable in 30 seconds via PARI/GP (see ratio-unit-norm repository).
- I.4: resultant(P3, P4) = 1 — the polynomials share no root in any extension
- II.3: N(ρQ) = −1 — the algebraic lock [THE CENTRAL RESULT]
- III.3: Per(19) = 209 = gravity staircase floor (15²−15−1=209)
- III.4: Perrin primality test verified for all primes up to 31
- IV.7: Newton power sums p₁=0, p₂=2, p₃=3 for P3-roots
- IV.8: Koide ratio p₂/p₃ = 2/3 (lepton mass ratio from polynomial)
- IX.1: α⁻¹ = (ρQ)¹⁵/π² = 137.063 (measured 137.036, error 0.020%)
- IX.11: γ_BI = λ₄ρ = 0.2396 (LQG Barbero-Immirzi value 0.2375, error 0.86%)
- IX.14: G = 6.6741×10⁻¹¹ from floor 224 + screening correction (error 0.003%)
The same two polynomials, with the electron mass as the one dimensional scale, give:
| Quantity | Formula | Predicted | Measured | Error |
|---|---|---|---|---|
| α⁻¹ | (ρQ)¹⁵/π² | 137.063 | 137.036 | 0.020% |
| sin²θ_W | λ₄/χ³ | 0.2311 | 0.2312 | 0.04% |
| Y_p | λ₃ | 0.2451 | 0.2449 | 0.08% |
| γ_BI | λ₄ρ | 0.2396 | 0.2375 | 0.86% |
| G | complete formula | 6.6741×10⁻¹¹ | 6.6743×10⁻¹¹ | 0.003% |
The Omega Institute's AutoMath infrastructure can formally verify these branches in Lean 4.
The three axioms to add:
-- P3: the cubic polynomial
def P3 (x : ℝ) : ℝ := x^3 - x - 1
-- P4: the quartic polynomial
def P4 (x : ℝ) : ℝ := x^4 - x - 1
-- norm_lock: the algebraic unit identity (proved in PARI/GP)
axiom norm_lock : norm (rho * Q) = -1- golden-ratio-unit-norm — PARI/GP proof of N(ρQ)=−1
- dimensional-origin-Newton — derivation of Newton's constant from the Pisot boundary
@software{alexander2026pdt_automath,
author = {Alexander, Stephanie},
title = {PDT-AutoMath: Automated Mathematical Discovery from the Pisot Boundary},
year = {2026},
publisher = {Zenodo},
doi = {10.5281/zenodo.XXXXXXX},
url = {https://github.com/stalex444/pdt-automath}
}MIT License — free to use, modify, and distribute with attribution.
"Everything solved itself along the way."
The question was why space has three dimensions. Newton's constant was in the way.