Physics Program

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F. Physics Program — Coming Soon

A substantial physics research program is under active development within the Reflexive Reality framework. The program investigates the mathematical foundations of physical law — what it means for a universe to be self-contained, what structural constraints self-containment imposes on the laws of nature, and how these constraints connect to the observed structure of fundamental physics.

The program addresses questions at the intersection of mathematical logic, formal physics, and the philosophy of science: What must the laws of a closed universe look like? What can be derived from first principles, without empirical input? Where does the structure of quantum mechanics and gravity come from? What is the relationship between physical law, consciousness, and the ground of being?

Papers in this program are in preparation and will be linked here as they are released. The mathematical framework and foundational results developed in the NEMS program form the basis for this work.

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Related Published Papers

The following papers from the NEMS suite are directly relevant to the Reflexive Physics program and are already published. They form the published physics-facing spine of the Reflexive Reality program and can be read independently by physicists while the fuller Physics Program is in preparation.

View the full PSC / Standard Model physics section on the NEMS page

B3. PSC / Standard Model Physics Papers

The following NEMS papers are particularly relevant to physics — specifically to the derivation of the structure of gauge theory and quantum mechanics from the principle of Perfect Self-Containment (PSC). They form the physics-facing spine of the NEMS suite and can be read independently by physicists.

Paper 03 — Structural Stability as a Necessity Principle in Self-Contained Gauge Theories

Derives structural stability (NM*) as a theorem from PSC, excluding GUT groups and CP-conserving theories.

Paper 04 — Instantiating No External Model Selection in Physics

Applies NEMS to macroscopic physical records and establishes the Class IIb criterion.

Paper 05 — PSC-Optimality of the Standard Model in 4D Gauge Theory Space

Proves the Two-Layer PSC Theorem: hard constraints force SU(3)×SU(2)×U(1); PI selects 3 generations.

Paper 06 — No External Model Selection in Quantum Gravity

Extends NEMS to quantum gravity via records, diffeomorphism redundancy, and non-effective internal selection.

Paper 07 — The NEMS Framework for Physicists

Self-contained introduction to NEMS for physics audiences; covers gauge structure and quantum gravity angle.

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Companion notes

Reader On-Ramp: The PSC–Born Fixed-Point Architecture

What is proven, what is assumed, and where disagreement must land.

Significance of the General Self-Reference Calculus

Explanatory note for Paper 26 of the NEMS Suite.

Explanatory Companion Note to Paper 30

Why perfect self-certification is impossible in self-referential systems.

Domain Corollaries of Viable Continuation

Companion to Paper 71: Section 12 and principal appendices.

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B2. UGP Formalization

The Universal Generative Principle (UGP) is a mathematical framework developed as part of the foundational research program. The lean-ugp library is a complete, machine-checked Lean 4 formalization of UGP’s core mathematical results: the ridge sieve, prime-lock criterion, Generative Triple Evolution update map, canonical orbit, Quarter-Lock identity, Turing universality, and self-reference (Lawvere, Kleene, Rice) — with a strict zero-sorry, zero-custom-axiom policy. Further theoretical development of UGP is ongoing; the Lean formalization is the published artifact for this stage of the work.

Lean source archive: Zenodo (PDF + DOI) (tarball of full source)

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Speculative Conjectures — Information-Geometric Physics

Important disclaimer: The essays below are speculative conjectures exploring an information-geometric approach to physics — specifically, whether physical laws and fundamental constants might emerge from the geometry of information-processing complexity. These are not formally verified results, have not been peer-reviewed, and do not constitute part of the established NEMS research program. They are early-stage exploratory writing, included here for completeness and transparency. They should be read as open research questions, not settled findings.

Reading order: start with the foundational essay (1) and proceed through the series. Each builds on the previous.

  1. Toward a Geometric Theory of Information Processing: Mathematical Foundations, Computational Applications, and Empirical Predictions
  2. Information Processing Complexity as Spacetime Curvature: A Formal Derivation and Physical Unification
  3. The Information-Gravity Synthesis: Field Dynamics of the Information Complexity Tensor
  4. The Energetic Cost of Information Geometric Complexity: Convergent Derivations of dE = α₀dΩ
  5. The Ω-Field: Classical Field Theory for Information Geometric Complexity
  6. Quantum Dynamics of the Ω-Field: Ω-Quanta, Fundamental Interactions, and Informational Uncertainty
  7. Information Geometric Origins of Mass, Charge, and Fundamental Symmetries from Ω-Field Configurations
  8. Cosmological Evolution of the Information Field: Running Complexity Coupling and Unified Cosmological Phases
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