“This is Paper 3 of an 8-part series, with subsequent papers released weekly.” This paper investigates the structural resilience of the Honeycomb Unit under small-scale geometric perturbations, referred to here as quantum jitter. Rather than assuming perfectly rigid cells, the honeycomb lattice is examined as a deformable discrete structure capable of absorbing local fluctuations while preserving its essential combinatorial topology. Using the tetrahedral–octahedral honeycomb as a reference framework, the paper explores how local distortions affect volume distribution, adjacency relations, and cell connectivity. It is shown that while edge lengths, angles, and local geometry may vary, the underlying topological relationships remain intact. In particular, the characteristic volumetric balance between tetrahedral and octahedral regions is preserved despite deformation. The octahedral region is treated as an emergent spatial feature arising from tetrahedral interactions rather than a fundamental primitive. This perspective allows the honeycomb to accommodate jitter without introducing gaps, overlaps, or topological inconsistencies. The result is a discrete lattice that is both flexible at small scales and stable at large scales. By demonstrating that the Honeycomb Unit maintains coherence under perturbation, this work strengthens the case for the tetrahedral–octahedral lattice as a viable candidate for discrete spacetime structure. The analysis provides a geometric foundation for understanding how quantum-scale variability may coexist with macroscopic stability in a discretized spacetime framework. v1
R. D. Howard (Thu,) studied this question.