The synergistic functioning of redox‐active components that emerges from prototypical 2,2′‐di(N‐methylpyrid‐4‐ylium)‐1,1′‐biphenyl is described. Interestingly, even if a trans conformation of the native assembly is expected, due to electrostatic repulsion between cationic pyridinium units, we demonstrate that cis conformation is equally energy‐stabilized on account of a peculiar LUMO (SupLUMO) that develops through space, encompassing the two pyridiniums in a single, made‐in‐one‐piece, electronic entity (superelectrophoric behavior). This SupLUMO emergence, with the cis species as superelectrophore embodiment, originates in a sudden change of electronic structure. This finding is substantiated by insights from solid state (single‐crystal X‐ray diffraction) and solution (NOE NMR and UV‐vis‐NIR spectroelectrochemistry) studies, combined with electronic structure computations. Electrochemistry shows that electron transfers are so strongly correlated that two‐electron reduction manifests itself as a single‐step process with a large potential inversion consistent with inner creation of a carbon‐carbon bond (digital simulation). Besides, absence of reductive formation of dimers is a further indication of a preferential intramolecular reactivity determined by the SupLUMO interaction (cis isomer pre‐organization). The redox‐gated covalent bond, serving as electron reservoir, was studied via atropisomerism of the reduction product (VT NMR study). The overall picture derived from this in‐depth study of 2,2′‐di(N‐methylpyrid‐4‐ylium)‐1,1′‐biphenyl proves that trans and cis species are worth considered as intrinsically sharply different, that is, as doubly‐electrophoric and singly‐superelectrophoric switchable assemblies, beyond conformational isomerism. Most importantly, the through‐space‐mediated SupLUMO may come in complement of other weak interactions encountered in Supramolecular Chemistry as a tool for the design of electroactive architectures.