Boundary-layer Signatures and Resonant Mobility in UAP: A Multidisciplinary Literature Review

Abstract

This literature review examines Unidentified Anomalous Phenomena (UAP) through the lens of physics, engineering, and observational science, with particular emphasis on Scalar Resonant Mobility Systems (SRMS) as a unifying theoretical framework. UAP consistently exhibits characteristics not accounted for by conventional aerospace or atmospheric models. This includes rapid accelerations without inertial signatures, silent operation, seamless transitions across media, luminous morphologies, and apparent refractive-boundary effects. While plasma analogues and experimental programs explain some features, none address the full set of observations, revealing a critical research gap in linking observed dynamics with a coherent theoretical model. This review therefore evaluates Scalar Resonant Mobility Systems (SRMS) as a hypothesis-driven synthesis in which resonance with a scalar field modulates inertial response, stabilizes luminous boundary layers, and alters apparent radiance. The approach remains theoretical and exploratory, and no direct experimental validation is yet available, but it provides testable propositions and design parameters for future investigation. Evidence motivating this comes from plasma persistence, scalar-field proposals for inertia and gravity, field-coupled propulsion studies, multi-sensor campaigns reporting correlated EM anomalies, and transformation-optics demonstrations of refractive control. Collectively, these findings position SRMS as a framework that integrates disparate research strands. This review outlines a set of testable predictions and engineering approaches for future laboratory and field evaluation. Methodologically, the paper employs comparative literature analysis, thematic synthesis, and cross-domain benchmarking to identify convergent principles suitable for laboratory testing.