We demonstrate a stable method for transferring information between adjacent reality states using entangled relay arrays. Our results show high-fidelity transmission with minimal decoherence.
Each trial paired two relay arrays — one anchored to our own reality state, one tuned to an adjacent branch — and held them in entangled resonance for the duration of the transfer window. Signal fidelity was measured against a divergence coefficient derived from the time elapsed since the two branches separated. Two hundred and forty transfer windows were recorded across twelve candidate branches, with relay power held constant and divergence age varied.
Fidelity falls predictably with the age of the divergence, and the resulting coefficient is measurable to within two percent. We found no upper bound on the number of branches that could be addressed in sequence, and no measurable effect of the act of addressing a branch on that branch's subsequent state.
The coefficient this method measures is a property of how far two branches have drifted apart — not a measure of compatibility or similarity between them. This is the basis for the classification reported to consumers of the Twins product: a match percentage describes divergence, not resemblance. The absence of an addressing effect suggests the boundary can be crossed routinely, with sufficient relay power, without disturbing what lies on the other side.