Abstract In standard relativistic physics, the speed of light is treated as the invariant limiting speed for local causal signal propagation, particle motion, and electromagnetic transport. The HoloGenesis framework accepts this limit for photons, particles, and material signals propagating within the lattice. However, it distinguishes between transport through the lattice and structural re-phasing of the lattice itself. Within this framework, the speed of light is interpreted as the maximum axial glide speed: one coherence step per re-phasing cycle along a single orthogonal channel. The lattice, however, is tri-orthogonal. If coherence renews simultaneously along three mutually orthogonal axes, the corresponding cubic body-diagonal stride is longer than a single axial step. HoloGenesis therefore identifies a structural re-phasing rate associated with the lattice’s own tri-orthogonal renewal. This quantity is not a particle velocity, not a photon velocity, not a material transport speed, and not a signal speed. It is a proposed structural stride rate of the lattice itself. It therefore does not violate the relativistic limit on local propagation. Rather, it distinguishes motion within the lattice from re-phasing of the lattice. This article updates the earlier formulation of the global stride speed according to the corrected HoloGenesis frequency architecture. Earlier versions associated the lattice’s standing frequency directly with the CMB spectral peak near 160 GHz. The corrected architecture now distinguishes the primitive subitron floor near 56.8 GHz, the base diagonal stride near 98.4 GHz, the CMB frequency-space spectral peak near 160.3 GHz, and the diagonal signal trace near 277.5 GHz. Thus, the 277.5 GHz component should no longer be described as the diagonal stride of the primitive lattice floor. It is more precisely the diagonal signal trace obtained by applying the tri-orthogonal stride factor to the CMB spectral peak. Meanwhile, the primitive diagonal stride of the floor itself lies near 98.4 GHz. This correction strengthens the article because it separates the structural base from the observable spectral peak. The primitive floor defines the subitron support of voided spacetime; the CMB peak gives the spectral manifestation of that support; the diagonal trace near 277.5 GHz becomes the observationally relevant stride signature in the microwave sky. The HoloGenesis prediction is therefore not merely that a number near 277 GHz exists, but that this region should be examined for phase-coherent, frequency-structured behavior consistent with tri-orthogonal lattice re-phasing. The observational connection is not presented as established. The 277.5 GHz region lies within a foreground-sensitive domain, especially affected by Galactic dust. The HoloGenesis claim becomes scientific only if the proposed signal can be distinguished from dust through isotropy, phase coherence, spectral behavior, foreground residual analysis, data-split survival, and comparison with standard cosmological simulations. The article therefore frames the 277.5 GHz signature as a falsifiable observational target rather than as a confirmed detection.
Grégoire Mommaerts (Thu,) studied this question.
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