Anisotropy of the QC-Medium and the 60.2° Vector: Directional Resistance and Structural Geometry of the Vacuum

This research (Article 3 in the series) explores the internal structural anisotropy of the Quantum Core (QC) medium. Moving beyond general hydrodynamic principles, the author identifies a fundamental spatial vector at 60.2°, which acts as a primary axis for energy distribution and dissipation within the vacuum geometry. Key highlights of this work include: Anisotropy of the Vacuum: Mathematical proof that the QC-medium is not isotropic; its resistance and density properties vary depending on the direction of interaction. The 60.2° Vector: Physical justification for this specific angle as a critical constant in the dissipation of inertial forces and the structural alignment of the medium. Sensor Data Analysis: Preliminary results from specialized measurement tools confirming periodic fluctuations in medium resistance aligned with the predicted vector. Geometric Constraints: A detailed look at how the Z-thickness of the vacuum dictates the directional movement of energy, influencing both micro-scale particles and macro-scale celestial bodies. This work continues the foundational series established in "Fundamental Z-thickness of the QC-medium" (DOI: 10.5281/zenodo.18167986) and "Gravitational Wells and the Viscous Nature of Inertia" (DOI: 10.5281/zenodo.18168409), providing the necessary geometric bridge for a unified model of the physical vacuum.