A quantum topological network model that might allow for the production of energy through the employment of vacuum electromagnetic currents form is based upon foundational principles of topological geometrodynamics (TGD) [Pitkanen, 1995a, b]. Such a production photon-factory would have the capability of drawing upon a seemingly inexhaustible supply of what in TGD formalism is a "vapour phase" of photons. Particularly in the presence of Bose-Einstein condensate photons, it is theoretically possible to convert these "vapour phase" photons into condensed photons that can then be harnessed and transformed into useful kinetic energy by more traditional means. The problem of how to control the dynamics of transferring this energy into a useful and regulatable kinetic form, such as may be employed within an ion drive or any number of alternative propulsion methods, is significant and involves issues of developing coherence and resonance among locally chaotic and asynchronous systems. This difficulty may be solvable through the adaptation of algorithms and models developed for synchronizing heterogeneous nonequilibrium oscillator networks.