This paper proposes an experimental proof-of-concept (PoC) design to explore the viability of solid-state Debye screening in neutralizing Coulombic repulsion between positive ions. Building upon the architectural framework of the CondensaTore I.M.E.S. project—which utilizes electronic Cooper pairs for storage—this study introduces "Anti-Cooper pairs" as a polar inversion mechanism to minimize ionic Coulombic repulsion, thereby facilitating nuclear fusion. The proposed pilot study utilizes an n-doped silicon carbide (4H-SiC) matrix to implement a test bench featuring pulsed ion emission. This setup explores the "Gogeta Point" (Inertial Tipping Point), a mathematical threshold where ionic inertia overcomes Coulombic repulsion. By mapping beam divergence within an ultra-high vacuum (UHV) environment, this study aims to empirically validate the feasibility of passive guidance for fusion-grade ion fluxes without the need for massive electrical forcing, suggesting a pathway for future scaling using synthetic diamond for superior structural resistance.