Microgravity Plasma Engineering Series: Papers 1

Paper 1 (MPE) introduces the Managed Plasma Environment framework, a structured and falsifiable theoretical architecture for understanding plasma behavior in microgravity. The paper defines the motivation for studying boundary‑free, convection‑suppressed plasma systems and establishes the physical rationale, constraints, and cross‑domain relevance of microgravity‑dependent plasma behavior. The work does not claim experimental validation. Its contribution lies in formalizing a regime space that has not previously been articulated in the literature: a governed, microgravity‑specific plasma environment with explicit physical boundaries and testable structural assumptions. The framework is intended as a foundation for future modeling, simulation, and experimental investigation. Contribution Paper 1 provides: a clear definition of the Managed Plasma Environment (MPE) the architectural motivation for isolating microgravity plasma behavior explicit physical constraints and governing assumptions a falsifiable structure that specifies what would constitute failure of the framework a reproducible basis for comparing microgravity and terrestrial nonlinear plasma behavior Potential Impact By formalizing the physical boundaries and governance metrics of microgravity plasma behavior, this work aims to: open a defined regime space for studying boundary‑free, convection‑sensitive nonlinear plasma phenomena support the design of future microgravity plasma experiments by specifying diagnostic and stability requirements enable systematic investigation of long‑coherence and filamentary structures difficult to sustain at 1g provide a falsifiable theoretical baseline for future experimental results serve as a conceptual substrate for related research threads involving rotational modes, boundary‑layer coupling, and high‑energy‑density plasma behavior This paper is an independent theoretical proposal. Its value should be assessed on its internal consistency, predictive structure, and falsifiability. The broader impact will depend on how future researchers apply, refine, or challenge the framework through simulation and microgravity experimentation.