A New Cosmic Perspective Derived from the Reexamination of Observational Phenomena Based on Cosmic Anisotropy

Version 22 adds newly completed Quantitative Analyses D-1 through D-4, focusing on CMB directional structures, the Axis of Evil plane, hierarchical anisotropy, and provisional tensor directional coordinate systems. In Quantitative Analyses D-1 through D-4, official Planck SMICA FITS data were used to investigate whether large-scale directional structures may exist within cosmic space. The analyses focused on: internal structures of the Axis of Evil plane, full-sky maximum cold and hot spot directions, Fourier directional components, and provisional tensor directional coordinate systems. In D-1, the Saturn north pole direction was provisionally adopted as the t1 axis, and the strongest protruding direction within the t1 orthogonal plane was extracted as a t2 candidate direction. In D-2, full-sky analyses revealed that the strongest global cold spot appeared relatively close to the t1 origin direction, while not coinciding with the t2 direction derived inside the Axis of Evil plane. This suggested the possibility that: full-sky directional structures, and internal Axis of Evil structuresmay exist hierarchically rather than as a single-axis structure. Fourier analysis further revealed strong A4–A6 components, suggesting that the observed structure may involve higher-order directional projections rather than a simple four-directional configuration. In D-3 and D-4, these observational results were provisionally interpreted within a virtual cube-type tensor directional framework containing:t1,t2,t3,and t4 directional structures. Importantly, the six-directional interpretation was not assumed from the outset, but emerged progressively through: four-directional analysis, principal-axis extraction, Fourier decomposition, and higher-order component analysis. At the present stage, the purpose of this research is not to claim a finalized cosmological model, but to quantitatively examine whether independent observational phenomena repeatedly exhibit common directional alignments. The values derived in D-1 through D-4 serve as essential reference data for future analyses involving: radio-source dipoles, void and filament distributions, galaxy rotational-axis alignments, and quasar polarization or jet-direction structures. The long-term objective is to determine whether multiple independent observations converge toward common cosmic directional structures, which may imply that cosmic space possesses large-scale hierarchical directional order rather than perfect isotropy.