Ephaptic Quantum Energy Teleportation and Quantum Ephaptic Coupling: A Unified Mechanism for Energy–Charge Recombination Across Lipid Barriers

Two distinct quantum mechanisms have recently been proposed for lateral, non-synaptic interactionsbetween adjacent ion channel pores embedded in lipid membranes. The first, ephaptic quantum energyteleportation (EQET), enables the transfer of energy—but not particles—between pores via correlationsin a shared electromagnetic field. The second, quantum ephaptic coupling (QEC), permits low-probabilitylateral tunneling of ions through the intervening lipid matrix, thereby transferring charge but not directedenergy. In this work we unify these two mechanisms into a composite process in which energy and charge,transported by distinct physical channels, recombine at a target pore.A key refinement introduced here is the promotion of ionic mass from a fixed scalar to a quantumoperator, yielding mass-conditioned tunneling amplitudes and energy-extraction probabilities. This operatortreatment reveals asymmetries in transport: heavier effective-mass components suppress tunnelingyet enhance local energy capture. Furthermore, by extending the perturbative expansion to third orderin the Dyson series, we identify the precise interaction terms that enable recombination, coupling mass,charge, and field degrees of freedom into a coherent process.The resulting framework provides a microscopic recombination probability that quantifies the likelihoodthat a tunneled ion becomes the carrier of teleported energy. This mechanism is juxtaposed withwell-established quantum effects in photosynthesis, highlighting a shared structural motif: the separationof energy propagation from charge motion followed by localized recombination. Limitations, scalingbehavior, and physical constraints are discussed explicitly. No claims are made beyond the internallyconsistent framework developed here.