Acoustic Induction Fields and Wave-Guided Laminar Flow in Zero-Gravity Cryogenic Fluid Transfer

Legacy space-based cryogenic refueling architectures exhibit critical failure rates due to their reliance on rigid-body mechanical pumps, kinetic valves, and 90-degree plumbing configurations. In microgravity environments, these high-friction terrestrial paradigms introduce catastrophic kinetic jerk and localized thermal gradients, causing inevitable fluid boil-off and system degradation. The Novelty: The profound novelty of this architecture lies in abandoning physical impeller pumps and rigid-body mechanics entirely. By replacing mechanical pressure differentials with a phase-locked acoustic induction field, this protocol treats fluid transfer as a solid-state wave-mechanics operation. By driving the transfer substrate at a strictly enforced resonant baseline of 450 Hz, the cryogenic fluid is organized into a coherent laminar wave-state. This architecture enforces a zero-jerk structural baseline, eliminating mechanical mass penalties, nullifying the thermal boil-off coefficient, and establishing true structural homeostasis across the transfer umbilical. Please, download PDF to mitigate any coding issues with OSF.