Registered No-Adjustment Z-Pole Prediction Package (6 Observables): Vacuum Response Skeleton Anchored by τ

This release provides a cryptographically anchored prediction package for six standard Z-pole observables derived from a single vacuum response time τ and a fixed electroweak normalization ℱₑw = π. The framework predicts the geometric skeleton of the electroweak sector at leading order.Standard Model loop corrections (Feynman diagrams) act only as a dynamical dressing of this rigid backbone. In conventional approaches, precision observables are obtained through thousands of radiative diagrams and fitted parameters. Here, the full tree-level structure emerges from a single physical timescale τ, with no auxiliary knobs, no scheme choices, and no post-hoc tuning. The observed discrepancy with loop-dressed experimental averages is interpreted as the vacuum saturation load (radiative gap), not as a failure of the framework. This gap numerically matches the standard oblique correction scale and represents the energy sequestered by vacuum fluctuations. This work explicitly separates: • geometric backbone (predicted here)• radiative dressing (Standard Model loops) The included PDF, Python script, and parameter file are SHA-256 anchored to enforce immutability and priority.If future collider data shifts toward these registered LO values, scientific precedence is fixed by the present hash. This paper is intended as a kinetic bridge between vacuum response physics and electroweak precision observables, distinguishing fundamental structure from perturbative dressing.