Shared Gravity: Gas as a Temporary Binder of Mass

This paper develops a logical-theory account of gas as a temporary binder, allocator, and converter within the Great Universal Recycle (GUR) framework. Rather than carrying gravity independently, gas is argued to borrow a binding quantity of a passing body's own gravity to hold it during interaction, while stripping mass, gravity, and gravity memory in ratio. The stripped frames are stored in solution and later reallocated either as an energy source or into new condensed structure, with the ratio and integrity preserved. Outcomes are regulated by gas density and particulate load: low-density gas tends to sustain existing bodies with minimal loss, whereas dense particulate-poor gas can trap, dissolve, and rebirth matter into infant bodies; dense particulate-rich gas more often permits transit with modest stripping. This perspective explains observed similarity of infant scales within the same field and maintains near-balance dynamics rather than stasis. The approach is explicitly deductive and context-driven, aiming to provide a coherent framework that can integrate future measurements without depending on them at every step.