Systematic Event--Object Misclassification in CERN and Fermilab Experiments

This work establishes a formal distinction between event structures and physically realized configurations within a closed variational framework defined by a fundamental functional S[Psi]. The analysis proceeds from the stationary condition delta S / delta Psi^dagger = 0, defining the solution space and the admissible domain. The physically realized configuration is uniquely selected through a global decisional functional, while all laboratory configurations are shown to be time-dependent, externally sustained, and non-stationary. It is proven that experimental configurations Psi_lab(t) do not belong to the stationary solution set and therefore cannot correspond to physically existing objects. Observables, including the quantity g-2, are constructed as functionals of Psi_lab(t) and thus represent properties of event structures rather than intrinsic properties of physical entities. A complete structural pipeline is developed, including the explicit construction of the Hessian, its spectral decomposition with a fixed ratio L = 1/4, and the emergence of a minimal cyclic closure. The mapping from configurations to observables is shown to be non-invertible, reinforcing the impossibility of reconstructing physically realized configurations from experimental data. The central result is that high-energy experiments, including those performed at CERN and Fermilab, produce and classify controlled event structures without accessing physically existing configurations. The interpretation of experimental observables as properties of fundamental objects is therefore not supported within the variational structure. The framework is internally closed, non-extendable, and structurally rigid. All results follow from explicit variational derivation without external assumptions.