The Epicycle System of Contemporary Physics: A Critical Reassessment — Neutrinos, Dark Matter, the Nuclear Shell Model and the Standard Model Re‑examined from the Perspective of Charge‑Cluster Theory (CCTH)
Year: 2026
Type: preprint
Abstract: Ptolemy’s geocentric model successfully fitted planetary positions at the cost of continuously adding epicycles, deferents and equants. A theory enters an “epicycle phase” when it must introduce an increasing number of ad‑hoc entities to account for new observations, each new entity serving mainly to resolve one single anomaly.This paper argues that modern particle‑ and nuclear physics are undergoing such a phase. Solar‑neutrino deficits, atmospheric neutrino anomalies, reactor anomalies and LSND anomalies have been patched sequentially via flavour oscillations, mixing matrices, CP‑violating phases, sterile neutrinos and the seesaw mechanism. For dark‑matter anomalies, candidates such as WIMPs, axions, self‑interacting dark matter and hidden‑sector models keep expanding the parameter space. Nuclear‑structure descriptions stack the liquid‑drop model, shell model, collective‑model corrections and Strutinsky smoothing. The Standard Model maintains internal consistency through quarks, gluons, colour confinement, W/Z bosons and the Higgs mechanism.The shared pattern of these “modern epicycles” reads: observational anomaly → introduce new entity → introduce new free parameters → further anomaly → introduce yet another entity. From the viewpoint of the Charge‑Cluster Theory (CCTH), only one fundamental interaction‑type exists (electromagnetism), and the fundamental building‑blocks are bound positive‑negative electron charge‑packets plus free photons. Protons and neutrons are charge‑clusters assembled from roughly 1800 positive‑negative charge‑packets; independent quarks, magnetic monopoles and conventional neutrinos do not exist. Energy gaps in weak decays dissipate over internal nuclear‑cluster degrees of freedom. So‑called neutrino signals correspond to nuclear‑scale electromagnetic processes; high‑energy “neutrino” events at Jiangmen and Antarctic detectors are interpreted as neutral charge‑cluster fragments with equal numbers of positive and negative charges. Gravitation is treated as a branch‑hypothesis: a statistical residual electromagnetic effect originating from intra‑cluster polarization, whose quantitative strength remains undetermined. Dark‑matter‑like gravitational excess is attributed to neutral compact baryonic objects (neutron‑star clouds) rather than exotic new fundamental particles.Observational evidence from magic‑angle twisted‑bilayer graphene is cited as empirical hints for paired‑electron configurations. Boundaries of AI‑assisted formal proofs for Yang‑Mills theory are analysed to illustrate that mathematical self‑consistency does not equal physical reality. The same epicycle‑diagnostic criteria are extended to string‑theory and supersymmetry programmes. Internal critiques by Weinberg, Penrose and Smolin are referenced, while Anderson’s “More Is Different” provides methodological grounding for emergent‑behaviour within CCTH.This work is primarily a methodological critique and philosophical preprint. It does not seek to discard the computational utility of the Standard Model; it argues against treating it as a final ontological endpoint. This preprint presents methodological critique and ontological reassessment rooted in the Charge‑Cluster Theory (CCTH) series. Gravitational interpretation is treated as a branch hypothesis with undetermined quantitative formulation. Dark‑matter‑related gravitational excess is attributed to compact neutral baryonic objects (neutron‑star clouds) instead of exotic new particles. This manuscript does not reject the computational validity of the Standard Model, string‑theory or quantum‑mechanical formalism; it criticizes ad‑hoc patch‑driven research patterns. Falsifiable experimental predictions are developed in separate companion CCTH publications.
Author: 庄, 武元
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225328803