Topology-Generated Physics Framework: Research Process Archive

Topology-Generated Physics Framework: Research Process Archive Archived: 2026-08-02 | Version: v2026-08-02 (62 files, ~396 KB) License: CC-BY 4.0 Nature: Research process record. Not a finished paper. Not peer-reviewed. Language note: The archive itself is written in Chinese. This description is provided in English; a Chinese version of the same description is included in the archive. 1. What this is A complete research-process archive for a classical topological field-theory framework derived from two axioms and one initial condition. Axiom A — There exists a continuous, rigid, locally volume-preserving medium manifold (M, g), with √g = constant holding pointwise. Two intrinsic parameters μ², γ. Local deformation of the medium is described by a complex field Ψ = Ae^{iθ}. Energy functional: F[Ψ, g] = ∫ [ −μ²|Ψ|² + γ|∇Ψ|² + ½|Ψ|⁴ ] dV Axiom B — Internal fibre-bundle structure: a compact internal space T³(θ, φ, χ) is attached at each ambient point. Initial condition E₁ — The primordial energy allocation, which fixes the vacuum "breathing" amplitude ε. In this framework, particles are topological excitations of the medium, not fundamental objects. The electron is a time-dependent topological defect carrying a Möbius half-twist; its charge, spin, mass and magnetic moment are all readings of that geometry, not independent labels. Scope: particle structure, nuclear structure, foundations of quantum measurement, cosmology. 2. What it contains 40 Chinese-language research memoranda + 21 Python scripts. Organised by line of work: Ontology: core memorandum v8 (main document), electron model, proton and the strong interaction, measurement ontology, entanglement layer Nuclear: deuteron, helium, nuclide chart (α-ladder) Cosmology: non-expansion redshift (closed), CMB, Λ, general relativity assessment, black hole horizon Quantum foundations: information/entropy definitions, entanglement layer (including four-qubit SLOCC family verification) Methodology: error-pattern memoranda, four volumes (E1–E27); ontology delivery checklist; prediction inventory Closed / abandoned lines: computation line (terminated, retained as historical record); baryon-number case (withdrawn) Execution: archiving and dissemination plan; outline and Chapter 4 draft of the intended first paper Handover documents: continuity records between working sessions Scripts are independently re-runnable, covering vacuum resonance structure, entanglement correlation tables (GHZ / W / four-qubit families), topological noise resistance, fluctuation–dissipation, and electron profile calculations. 3. Honest declarations (please read) 3.1 Most results are "correspondence-level", not new predictions. That is: known experimental or theoretical results are re-derived from the framework's axioms — charge quantisation, spin ½, g = 2, the Born rule, GHZ/W entanglement correlation tables, Hubble's law, and others. In every such case the target was known in advance. These therefore count only as "the framework is not in conflict with established results", never as "the framework predicted them". 3.2 Distinguishable new predictions are few. The principal ones currently on record: The z–D curve differs in shape from ΛCDM at high redshift (potentially distinguishable by DESI / Euclid) Gravitational strength at particle scales is far higher than the standard extrapolation (G has never been measured at particle scales) Two topological noise-resistance scaling laws — threshold rising linearly with excitation strength, and readout noise-resistance improving as the square root of system size; both measurable on a classical benchtop α time-variation is predicted to be in the frozen branch (α̇ ≈ 0), which has low discriminating power 3.3 Several core quantities remain "effective-level" or undetermined. For example: the collapse re-locking rule was constructed against a two-body target, and its only credential is that it transferred to new cases without modification; the cutoff parameter α_cut is currently constrained only to 1.00 ± 5%; the internal metric component Rc has never been independently determined ("three internal directions of equal size" remains an unproven default). 3.4 The archive contains extensive records of failure, deliberately retained. The error-pattern memoranda (E1–E27) document, case by case, the categories of error made during derivation and how each was diagnosed. Entries marked "negative result", "withdrawn" and "terminated" are likewise retained throughout. Terminated lines of work are not deleted; they are demoted to historical records. This is a working discipline of the project and forms part of the archive's evidential value. 3.5 No external review of any kind. All conclusions to date have passed only internal scrutiny. There has been no peer review and no experimental collaboration. 3.6 AI assistance. Derivational execution, numerical computation and document maintenance made extensive use of an AI assistant (Anthropic Claude). Conceptual direction, criteria for judgement, and all substantive adjudications were made by the author. The AI does not qualify for authorship. A substantial portion of the retained failure-and-correction records consists precisely of corrections to AI reasoning errors. 4. Versioning This archive is uploaded as a version chain: a new version is deposited at the close of each research phase, so that the research timeline is verifiable throughout. Planned next: selected results will be sliced into English-language papers, each separately archived with its own DOI. This Chinese archive remains the complete process record; the English slices complement it rather than replace it. 5. Citation This is a process record rather than a finished result. When citing a specific conclusion, please give the memorandum name, its version, and the confidence level assigned to that conclusion within the archive (suggestive / argument-level / proof-level / hypothesis-level). Please do not omit the level. This description is updated with each version of the archive.