Same Detector, Two Ontological Translations: CST's Reinterpretation of LHC, BES, and LHAASO Experimental Signals and the Paradigm Rupture (V1.1)

Abstract This paper takes a thoroughgoing CST ontological stance and provides a point-by-point CST ontological translation of five classes of observations from major scientific facilities: the "Higgs signal" in LHC proton collisions, the "glueball signal" in BES electron-positron collisions, helical tracks in collider detectors, the near-synchronous arrival of photons and neutrinos from the Crab Nebula at LHAASO, and the terminal knee of LHAASO black-hole jets. The core claim is this: experimental readings, events, spectra, time differences, and tracks are all objectively true, and CST accepts them in full; the disagreement lies not at the level of phenomena but at the level of ontological attribution. The Standard Model reifies every signal peak into an independent particle and furnishes it with a global field—this is a phenomenon-saving construction. CST insists on a monistic ontology: three-dimensional Euler-helical energy, through the proportioning, compression, tearing, temporary locking, and terminal re-entanglement of three string states—G, R, and N—gives rise to all "particles" and "fields." It must be emphasized in particular: to explain the LHC 125 GeV signal, one must first explain that the proton's prior state is an RNN + GGN + GGN, G-string-dominant N-string position-locking structure; each quark has a fixed total of 3 shares, with the central quark being RNN and the two peripheral quarks being GGN; N-string elastic locking is not a single N acting within the whole structure, but is directly related to the number and position of N within each quark, forming a position-dependent locking network. To explain the BES X(2370), one must first explain that the electron and positron are GNN + RRN + RRN and RNN + GGN + GGN structures with completely opposite R/G ratios; upon collision they undergo morphological neutralization, the N-string position locking fails and recombines, and only then does a temporary N-type aggregation region form. Without these two prior structures, the subsequent "G-trend peak exposure" and "N-type glueball" would appear evidentially insufficient. At the same time, a distinction must be drawn: the Crab Nebula sample tests "terminal manifestation synchronicity," while the black-hole jet knee sample tests "post-manifestation interaction between particles and surrounding matter." The two lie at different links in the CST explanatory chain, their physical pictures differ, and they must not be conflated. Finally, directions for quantitative interfaces capable of exclusivity adjudication are given.