Systematic Event--Object Misclassification in CERN and Fermilab Experiments

This work develops a formal distinction between events and objects within a closed variational framework defined by a fundamental functional S[Psi]. Physical existence is defined as the selection of a stationary configuration Psi* from an admissible domain, obtained through a global decisional functional. It is shown that laboratory configurations Psi_lab(t), which underlie all high-energy experiments, are time-dependent, externally sustained, and do not satisfy the stationary condition delta S / delta Psi^dagger = 0. As a consequence, such configurations do not belong to the set of physically realized states. Observables, including the quantity g-2, are constructed as functionals of Psi_lab(t) and therefore describe properties of event structures rather than intrinsic properties of physical objects. The mapping from configurations to observables is non-invertible, implying that no physically realized configuration can be reconstructed from experimental data alone. The analysis leads to a reinterpretation of high-energy physics experiments, including those performed at CERN and Fermilab, as procedures that generate and classify controlled event structures without accessing physically existing objects. The distinction between event and object is thus not interpretative but follows from the internal structure of the variational framework. The framework is structurally closed, non-modular, and rigid, and all results are derived without external assumptions.