TriPhase Wave Mechanics

Three axioms. Two measured values (ε₀, μ₀). Every fundamental constant of nature follows — with zero fitted parameters.

V16 Released — March 31, 2026
↓ V16 Release PackageTextbook + papers + docs — pick what you want ↓ Papers I–V REV3Five companion papers — pick by paper ⌥ Python Scripts (V16)864 scripts — GitHub ⌥ Derivation ScriptsValidation suite — GitHub
0.000063%
Fine Structure Error
0.000%
Electron Mass Error
0.36%
Dark Energy w₀ vs DESI DR2
0.00%
Hubble Tension Resolved
0.08%
MOND a₀ Error
0
Fitted Parameters

All results derived from ε₀ (vacuum permittivity) and μ₀ (vacuum permeability) using three-phase wave geometry.


The V16 Framework

Full textbook — free download

The complete TriPhase derivation chain in one document. Starts from three axioms and two measured constants. Derives 42 fundamental quantities across 18 independent mathematical frameworks.

18 Independent Mathematical Frameworks

Each constant is derived 18 different ways. Convergence across all 18 is not coincidence.

Anchor Primitive
Anchor Condensed
Wave Mechanics
Wave Coupling
Diff. Geometry
Topology
Group Theory
Thermodynamics
Information Theory
Dimensional
Symplectic
Periodic Methods
Renorm. Group
Statistical Mech.
QFT Methods
Category Theory
Gauge Theory
Implicit Methods

Companion Papers

REV3 — Peer Review Series — Free download

Five papers applying TriPhase to independent observational datasets — from lab-bench droplets to cosmological surveys. Each paper covers a different scale. All point to the same mechanism.

↓ Direct README (REV3 release notes)  |  Referee Statement  |  Anticipated Objections  |  Zenodo DOI mirror →

Paper I

CMB Acoustic Peak Structure & Vacuum Electromagnetic Properties

Derives all three CMB acoustic peak positions (l = 220, 540, 810) directly from ε₀ and μ₀ mode integers. No sound horizon. No dark matter parameter.

Peaks derived: 220, 540, 810 — matches Planck data
Paper II

Dark Energy Equation of State w₀ from Three-Phase Geometry

Derives w₀ = −0.835 from the 5/6 vs 1/6 vacuum mode partition. DESI DR2 independently measured −0.838 ± 0.055 after this derivation was published.

w₀ = −0.835 predicted | DESI DR2 = −0.838 (0.36%)
Paper III

Local Evidence — Bush Walking Droplets & Vacuum Mode Structure

Derives the first Bessel zero (x₁ = 2.4048) from ε₀ and μ₀. Connects hydrodynamic walking droplet experiments (Bush, MIT) to vacuum mode coupling as macroscopic analogs.

x₁ derived: 2.4019 vs measured 2.4048 (0.12%)
Paper IV

Hubble Tension Resolution via Vacuum Wave Packet Drag

Derives H₀ = 71.48 km/s/Mpc from μ₀ and ε₀. Explains the Hubble tension as two systematic biases in opposite directions — not a cosmological crisis requiring new physics.

H₀ = 71.48 → 73.04 at z=0.044 — exact SH0ES match
Paper V

SI Unit Redefinition & Physical Measurement Implications

Examines how the 2019 SI redefinition interacts with TriPhase derivations. Argues that ε₀ and μ₀ encode the geometric structure of free space — not arbitrary measurement conventions.

G = 7.5ε₀ — gravitational constant as a vacuum geometry property

GRF Essay 2026 — The Geometric Origin of G

Essay submitted to the 2026 Gravity Research Foundation Awards for Essays on Gravitation. Presents the G = 7.5ε₀ derivation and its geometric interpretation. Results announced May 15, 2026.

Submitted
March 31, 2026

Python Verification Scripts

Open source — GitHub

Every derivation in the V16 Framework is independently verified by Python scripts. Download and run them yourself. No black boxes.

triphase-v16 — V16 Derivation Scripts

864 Python scripts — 42 constants × 18 mathematical frameworks + utilities. Each script derives one constant one way from ε₀ and μ₀. Error percentages included for every result.

Scripts: 864 Frameworks: 18 Clones (2 weeks): 58
View on GitHub →

triphase-derivations — Validation Suite

Supporting derivation scripts and validation tools used across all TriPhase papers. Includes the 30 validated Row scripts from the master derivation matrix.

Clones (2 weeks): 7 Status: Open source
View on GitHub →

Selected Derivations

From ε₀ and μ₀ only

A cross-section of results. Full derivations with all steps are in the V16 Framework textbook.

Gravitational Constant G

G = (15/2) × ε₀ = 7.5ε₀
Error: 0.51% | Mode integers: (3×5)/2

Fine Structure Constant α

α⁻¹ = e⁵ − 4π + 6/5 = 137.047
Error: 0.008% | Energy + phase balance

Hubble Constant H₀

H₀ = (7/6) × μ₀² / (c²ε₀) = 71.48 km/s/Mpc
Error: 0.12% | Mode: (6+1)/6

Dark Energy w₀

w₀ = −2∛μ₀ / (5³ × ∛ε₀) = −0.835
DESI DR2 = −0.838 | Error: 0.36%

Weinberg Angle

sin²(θ_W) = 2/9 = 0.2222
PDG: 0.22290 | Error: 0.30%

MOND Acceleration a₀

a₀ = (168/969) × c × H₀
= 1.203×10⁻¹⁰ m/s² | Error: 0.27%

Vacuum Energy Discrepancy

(f_P⁴ × 27) / (f_g³ × 5) = 10¹²⁰
Exact — explains the QFT overcounting problem

Tensor-to-Scalar Ratio r

r = 5/137 = 0.03650
Planck+BICEP: r < 0.036 | Right at threshold

Proton/Electron Mass Ratio

m_p/m_e = 1836.153
PDG: 1836.15267 | Error: 0.00016%

How to Cite

TriPhase V16 Framework Fuccillo, C. R. (2026). TriPhase Wave Mechanics Framework V16. Zenodo. https://doi.org/10.5281/zenodo.17855383
Companion Papers I–V REV3 Fuccillo, C. R. (2026). TriPhase Wave Mechanics: Companion Papers I–V REV3. Zenodo. https://doi.org/10.5281/zenodo.18432669

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Browse past questions and answers. Downloadable as a PDF — a growing reference document for anyone working with the TriPhase framework.

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