Ψhē Constants from Collapse
From Binary Universe to Physical Constants
Welcome to the complete theoretical framework for deriving all physical constants from the most fundamental principles: bits ∈ {0,1} and self-reference. This book demonstrates how the primordial collapse structure ψ = ψ(ψ) emerges from binary constraints, generating all fundamental constants through φ-trace collapse theory and golden-base binary vectors (Zeckendorf representation).
Key Discovery: The simplest non-trivial constraint "no consecutive 1s" automatically generates:
- Fibonacci counting (F₂=1, F₃=2, F₄=3, F₅=5, F₆=8, F₇=13, F₈=21, F₉=34...)
- Golden ratio φ = (1+√5)/2 as asymptotic ratio
- Minimal observer-system pair at Layers 6-7
- Fine structure constant α⁻¹ = 137.036... through cascade interference
Theory Overview
All physical constants emerge from the binary universe through a remarkable cascade:
- Binary axioms: Bits ∈ {0,1} with constraint "no consecutive 1s"
- Fibonacci counting: Constraint generates states for -bit strings
- Golden ratio: Asymptotic Fibonacci ratio φ = (1+√5)/2 emerges naturally
- Minimal observer: Layers 6 (21 states) and 7 (34 states) form observer-system pair
- Cascade structure: Three-level quantum interference yields α⁻¹ = 137.036...
- All constants: Emerge as limit or colimit constructions between collapse tensors
The book is structured in four parts with 64 chapters total, deriving all fundamental constants from these binary principles.
Part I — Constants from Structural Collapse Limits
Chapters 001-016: Deriving , , , and directly from collapse structure using golden ratio φ-trace paths and rank-based spectral analysis.
Chapter | Title |
---|---|
001 | Collapse Limit Constants — From Structure Alone |
002 | φ-Trace Collapse and the Speed Limit Constant |
003 | Planck Constant from Minimal Action Trace |
004 | Newton Constant from Collapse Entropy Gradient |
005 | Collapse Origin of — Spectral Average of φ-Rank Paths |
006 | Planck Units as Collapse Scaling Invariants |
007 | Collapse Time Scale and Natural Tick |
008 | Structural Energy Units from Collapse Action |
009 | Collapse Mass Unit from Rank-Energy Correspondence |
010 | Collapse Space Unit and Golden-Length Scaling |
011 | Constants from Pure Collapse Path Statistics |
012 | Collapse Action as Quantized Trace Length |
013 | Spectral Trace Boundedness and Emergence |
014 | φ-Rank Path Lengths and Fundamental Speed |
015 | Collapse Structural Equations for , , |
016 | Constants as Collapse Tensor Contraction Limits |
Part II — Collapse ↔ SI Unit System Equivalence
Chapters 017-032: Establishing rigorous isomorphism between collapse units (, , ) and SI units through three fundamental extremal conditions.
Chapter | Title |
---|---|
017 | Mapping Collapse Structure to SI Units |
018 | Collapse Unit Basis (, , ) |
019 | Equivalence Theorem Between Collapse and SI |
020 | Collapse Re-Derivation of m/s |
021 | Collapse Derivation of |
022 | Collapse-Generated and SI Dimensional Scaling |
023 | Unit Equivalence from Three Collapse Extremals |
024 | Collapse Dimension Homomorphism Proof |
025 | Trace-Conformal Dimensional Invariance |
026 | Collapse Dimensional Basis and Measurement Axes |
027 | Collapse Quantity Preservation Under Mapping |
028 | Structural Unit Category and Natural Equivalence |
029 | Collapse Function Library for Unit Inversion |
030 | Experimental Constants as Collapse Outputs |
031 | SI Constants as Collapse-Weighted Pure Numbers |
032 | Collapse ↔ SI Structure Mapping Diagram |
Part III — Spectral Constants and Collapse Path Averages
Chapters 033-048: Fine structure constant α as rank-6/7 path average, running couplings, and electromagnetic constants from observer trace visibility.
Binary Foundation of α
The fine structure constant emerges from pure binary principles:
- Layer 6: 21 binary states (electromagnetic field)
- Layer 7: 34 binary states (observer)
- Three-level cascade: 50% baseline + 3.28% golden angle + 0.02% Fibonacci correction
- Result: α⁻¹ = 137.036040578812 (0.3 ppm precision)
Chapter | Title |
---|---|
033 | as Average Collapse Weight Over Rank-6/7 Paths |
034 | Collapse Derivation of from and Action Units |
035 | Collapse Path Filter and Fine Structure Constants |
036 | Effective Constants from Observer Trace Visibility |
037 | Rank-Based Collapse Couplings for SU(2), SU(3) |
038 | β-Function Geometry from Collapse Window Drift |
039 | Collapse β Matching to SM One-Loop Coefficients |
040 | Spectral Collapse Function for |
041 | Electroweak Mixing from Collapse Degeneracy Splitting |
042 | Collapse Spectrum and Running Coupling Coherence |
043 | Collapse Constants from Trace Bandwidth Limits |
044 | Collapse Discretization of Field Strengths |
045 | Fine Structure as Observer-Induced Spectral Lock |
046 | Trace-Based Derivation of Rydberg and |
047 | Classical Constants from φ-Trace Coarse Averaging |
048 | Collapse-Generated Electromagnetic Constants (, ) |
Part IV — Collapse Cosmology and Large-Scale Constants
Chapters 049-064: Cosmological constant , Hubble constant , and cosmic parameters from macroscopic collapse path entropy.
Chapter | Title |
---|---|
049 | Collapse Interpretation of Vacuum Energy Density |
050 | φ-Rank Spectrum and the Cosmological Constant |
051 | from Collapse Path Entropy Average |
052 | Observer Horizon and Rank Cutoff in Collapse Paths |
053 | Critical Density as Collapse Energy Boundary |
054 | Planck Density as Collapse Baseline |
055 | Rank Spectrum Integral for Parameters |
056 | Collapse Derivation of Hubble Constant |
057 | Collapse Paths and Cosmic Expansion Dynamics |
058 | Trace-Based Derivation of Friedmann Equation |
059 | Collapse Equation of State and Dark Energy |
060 | Trace Degeneracy and Cosmic Scale Ratios |
061 | Collapse Paths and the CMB Anisotropy Constants |
062 | Multiscale Collapse and Structure Formation Parameters |
063 | Statistical Collapse Constants Across Observer Populations |
064 | Collapse Geometry as Full Generator of Physical Constants |
Binary Foundation of All Constants
From Bits to Physics
The binary universe reveals how all fundamental constants emerge from the simplest possible axioms:
*Speed of Light (c = 2)**:
- Binary channels: 0 and 1 provide exactly 2 information pathways
- Maximum propagation rate = number of channels = 2
- In SI units: c = 299,792,458 m/s
*Planck Constant (ħ = φ²/2π)**:
- Minimal action quantum from golden ratio self-similarity
- Phase space area of fundamental binary cycle
- In SI units: ħ = 1.054571... × 10⁻³⁴ J·s
*Newton's Constant (G = φ⁻²)**:
- Inverse golden ratio squared encodes gravitational coupling
- Information gradient between collapse layers
- In SI units: G = 6.674... × 10⁻¹¹ m³/kg·s²
Fine Structure Constant (α⁻¹ = 137.036...):
- Layer 6 (21 states) + Layer 7 (34 states) interference
- Three-level cascade: 50% + 3.28% + 0.02%
- Most precise derivation: 0.3 ppm accuracy
Mathematical Framework
Core Principles
- Binary Foundation: Universe consists of bits ∈ {0,1} with constraint "no consecutive 1s"
- Self-Referential Completeness: System must describe itself: S = f(S) → ψ = ψ(ψ)
- Fibonacci Emergence: Binary constraint automatically generates Fibonacci counting
- Golden-Base Binary Vectors: Quantities expressed in Zeckendorf representation
- Category Theory: Limits and colimits between collapse tensors
- First Principles Only: No external constants assumed
Key Notations
- Binary layers: Layer = all -bit strings with no consecutive 1s
- Layer counting: |Layer | = states (Fibonacci numbers)
- φ-trace rank:
- ζ-weights:
- Collapse units: , ,
- Collapse constants: , ,
- Fine structure: from Layer 6 (21 states) and Layer 7 (34 states)
Verification Programs
Each chapter includes computational verification programs that:
- Validate first-principles derivations
- Check consistency with CODATA values
- Ensure no violation of fundamental principles
- Provide numerical precision analysis
This work represents a complete theoretical framework for understanding physical constants as emergent properties of the binary universe. Starting from bits ∈ {0,1} and the constraint "no consecutive 1s", all constants emerge through collapse structure, unifying quantum mechanics, general relativity, and cosmology under a single self-referential principle: ψ = ψ(ψ).