Geometric Alignment of Pyramid Structures Across Planetary Harmonic Zones: A probability-gradient analysis informed by planetary light, geometry, and proportional alignment

This paper examines how a geometric classification framework for pyramid structures aligns with the global distribution of known pyramidal forms. Using planetary light regimes, harmonic latitude bands, and proportional geometry as organizing variables, the analysis evaluates correspondence without asserting causation, intent, or historical transmission. Structural variations are examined as regionally adaptive responses to environmental conditions, producing comparable ambient coherence through differing geometric strategies. Observed alignments are presented as probability gradients based on geometric fit and environmental context. geometric alignment, pyramid distribution, planetary harmonics, probability gradient, base-12 geometry, spherical partitioning, ambient coherence, harmonic zones, latitude effects, structural adaptation, subsurface chambers, ionic modulation, environmental filtering, geometric invariance, proportional ratios, symmetry closure, dual-layer structures, surface-dominant geometry, polar geometry, equatorial geometry, mid-latitude structures, light regimes, infrared absorption, electromagnetic variability, material damping, geometric convergence, planetary light, structural coherence, ratio preservation, harmonic geometry, architectural alignment, field stabilization, environmental geometry, resonance damping, global geometry, planetary EM fields, geometric probability, adaptive structures, coherence filtering, geometric frameworks, harmonic alignment, structural equivalence, planetary constraints, spatial geometry, environmental modulation