The 3S+3T Model: Temporal and Spatial Skew in a Quasi-Flat Spacetime
Abstract
This essay expands the previously developed three-directional time model by introducing a spatial skew of comparable magnitude to the formerly introduced temporal skew, proposing that both time and space possess subtly tilted planes. The superposition of temporal and spatial skew redefines flatness: the minute tilt of the τ-axis in Time relative to θ induces temporal anisotropy, just as the mirrored skew of z relative to x adds, in Space, a similar directional bias. Though nearly imperceptible locally, their cumulative effect across cosmological distances not only redefines how events are realised, thus propagating Time, but also how entropy evolves, and how information propagates. Observable consequences may include polarisation rotation in the Cosmic Microwave Background (CMB), anisotropic redshift behaviour, entropy gradients, and alignment patterns in large-scale universal structures. Rather than abandoning flatness, this model retains local orthogonality as it introduces global anisotropy – not through curvature, but through geometric skew. Time and Space are treated not as orthogonal absolutes, but as emergent, directionally biased, interdependent structures – tilted just enough to leave fingerprints in the universe.
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DOI: http://dx.doi.org/10.23756/sp.v14i1.1725
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