This upload contains the first two papers in the Microgravity Plasma Engineering (MPE) series. Both papers introduce structured, falsifiable theoretical frameworks for plasma behavior in microgravity environments. They do not claim experimental validation. Paper 1 (MPE): Defines the Managed Plasma Environment (MPE) concept and establishes the architectural motivation for studying plasma behavior in microgravity. It introduces the rationale, constraints, and cross‑domain relevance of microgravity plasma systems. Paper 2 (MNPP): Develops the Microgravity Nonlinear Plasma Platform (MNPP), a theoretical framework describing governed nonlinear plasma evolution under microgravity conditions. The paper provides explicit physical boundaries, governance metrics, and a full falsifiability structure, including five quantitative predictions with defined failure criteria. Contribution: The value of these papers lies in the introduction of structured, internally consistent, and falsifiable frameworks for microgravity‑dependent nonlinear plasma behavior. To the author’s knowledge, no prior work has formalized this regime space in this manner. These documents are intended as foundations for future modeling, simulation, and experimental investigation. Potential Impact The frameworks presented in these papers are intended to enable new lines of inquiry in microgravity plasma physics. By formalizing the physical boundaries, governance metrics, and falsifiability conditions for nonlinear plasma behavior in microgravity, this work provides a structured foundation for future modeling, simulation, and experimental studies. The potential value of this contribution lies in its ability to: open a clearly defined regime space for studying boundary‑free, convection‑sensitive nonlinear plasma phenomena provide a reproducible structure for comparing microgravity and terrestrial nonlinear behavior support the design of future microgravity plasma experiments by specifying diagnostic, stability, and control requirements enable systematic investigation of long‑coherence and filamentary structures that are difficult to sustain at 1g offer a falsifiable theoretical baseline against which future experimental results can be evaluated serve as a conceptual substrate for related research threads involving rotational modes, boundary‑layer coupling, and high‑energy‑density plasma behavior These papers do not claim experimental validation or predictive authority. Their contribution is the introduction of a structured, internally consistent, and testable framework that did not previously exist in the literature. The potential impact of this work will depend on how future researchers apply, refine, or challenge the framework through simulation and microgravity experimentation. Both papers are independent theoretical proposals and should be evaluated on their internal consistency, predictive structure, and falsifiability.
Wayne Griffiths (Tue,) studied this question.