L.I.G.H.T.S.A.B.E.R. Space Scanner Analysis

This study presents a volumetric analysis of 21,765 vacuum stress nodes to validate the Topological Lagrangian Model (TLM), a field-based framework that predicts the location of baryonic mass as a function of geometric metric tension.Using a computational Volumetric Metric Scanner, we evaluated deep-space sectors for topological invariants including Helicity (H) and Resonant Mode (m).Cross-referencing these predictions with Simbad and Gaia DR3 catalogs revealed an aggregate signal validity rate of 80.2%, comprising confirmed baryonic matches (20.6%) and a distinct population of uncatalogued Geometric Locks (59.6%).Unsupervised K-Means clustering (k = 4) independently validated these Geometric Locks as a coherent physical state, exhibiting extreme metric tension ( H ≈ 122.8) and sub-arcminute spatial precision ( Ō ≈ 53") statistically identical to confirmed black hole signatures.These findings provide empirical evidence for the Spectral Focusing effect, where high-energy vacuum knots naturally constrain spatial coordinates, and suggest that a significant portion of the universe's unseen mass exists as high-tension, non-radiative geometric singularities.