1 The Hard Rules of Reality
1.1 The Ultimate Optimisation
1.2 The Shredder Experiment: Why Substrate Does Not Matter
1.3 What the Observer Actually Is
1.4 Causality between the Computer and the Simulated Alice
1.5 What This Means for Physics
2 Black Holes as Zero-Entropy States
2.1 The Informational Telescope
2.2 Inside the Event Horizon: Two Scenic Routes
2.3 The Mathematical Proof of a Point
2.4 No New Physics Required
2.5 Holographic Reconciliation
2.6 The Takeaway
3 The Genesis Grid: Emergent Spacetime from Zero-Entropy Initial States
3.1 Space is Not a Stage
3.2 Expansion as Entropy Increase
3.3 The Hierarchical Emergence of Structure
3.4 The Lognormal is Universal
3.5 Three Cosmological Puzzles Dissolved
3.6 What This Chapter Establishes
4 The Cosmic Bit Budget: Spacetime Resolution and the 184-Bit Universe
4.1 Two Resolutions from One Number
4.2 The Aspect Ratio
4.3 Reading the Inflationary Epoch
4.4 An Independent Consistency Check
4.5 Black Holes: A Local Bit Budget
4.6 What G, c, and ℏ Are
4.7 What This Chapter Establishes
5 The Conservation of Resolution: Gravity as an Informational Knot
5.1 The Knot in the Rope
5.2 The Relational Scale Factor
5.3 Two Famous Solutions from One Equation
5.4 Re-Reading the Friedmann Equation
5.5 The Cosmological Constant Problem Dissolved
5.6 Gravity as Geometry, Not Force
5.7 From Linear Counting to Spherical Geometry
5.8 What This Chapter Establishes
6 The Universe as an MPEG: The Wavefunction as Data Compression
6.1 The Pixel-Physicist’s Dilemma
6.2 The Born Rule as Dithering
6.3 Fermions, Bosons, and What Is Actually Fundamental
6.4 Spectral Complexity: A Computable Measure
6.5 The Boltzmann Brain Problem Dissolved
6.6 What Emerges from Spectral Compression
6.7 The Informational Action Principle
6.8 What This Chapter Establishes
7 The Ghost in the Codec: Emergent Particles and the Born Rule
7.1 Two Kinds of Object in a Compressed Universe
7.2 Six Experiments
7.2.1 Experiment 1: The Minimal Video
7.2.2 Experiment 2: Boson Structure
7.2.3 Experiment 3: The Universal Phase
7.2.4 Experiment 4: Two-Fermion Hops
7.2.5 Experiment 5: Pauli Exclusion as Zero Compressibility
7.2.6 Experiment 6: The 𝜃-Scaling Theorem
7.3 The Born Rule Identity
7.4 The Lifecycle of a Virtual Particle
7.5 Four Exact Results
7.6 What Remains Open
8 The Particle Spectrum from Codec Geometry
8.1 The Universal Norm Theorems
8.2 The Winding Number and Internal Symmetry
8.3 The n = 2 Sector: Leptons
8.4 The n = 3 Sector: Quarks and Confinement
8.5 The Complete Classification
8.6 The Mass Hierarchy
8.7 Two Layers and the Bridge Between Them
8.8 What This Chapter Establishes
9 General Relativity as a Geometric Codec
9.1 The Same Operation, Different Degrees of Freedom
9.2 Theorem 1: The Ellipse as Minimum-Complexity Worldline
9.3 Theorem 2: The Ricci/Weyl Decomposition
9.4 Theorem 3: The Graviton Amplitude
9.5 Two Polarisations Without a Spin-2 Postulate
9.6 Theorem 4: The Newtonian Potential from Flux Conservation
9.7 The Conservation Law
9.8 G as a Consistency Condition
9.9 What Remains Open
9.10 What This Chapter Establishes
10 Sanity Check: Two Stress Tests of the Framework
10.1 The Risk
10.2 Stress Test 1: Wheeler-DeWitt Minisuperspace
10.2.1 The Setup
10.2.2 Eliminating the Confound
10.2.3 Results
10.2.4 What This Establishes
10.3 Stress Test 2: The Three-Phase Expansion from Lognormal Matter
10.3.1 The Setup
10.3.2 Three Phases from One Equation
10.3.3 The Hubble Tension
10.3.4 What This Establishes
10.4 The Verdict
11 Epilogue: Towards a Zero-Parameter Theory of Everything
11.1 Introduction: The Shared Ignorance of Modern Physics
11.2 The Mastering Principle: Solomonoff Path Integrals
11.3 The Unifying Structural Proofs
11.3.1 The Subatomic Projection (Quantum Mechanics)
11.3.2 The Macroscopic Projection (General Relativity)
11.4 The D-ψ-G Trinity
11.5 The Self-Selection of the 184-Bit Budget
11.6 The Unified Ledger of Physics
11.7 Conclusion: The Final Render