Anomalous Structural Integrity and Kinematics of Micro-Vesicular Entities in Aqueous and Aliphatic Media: Empirical Refutation of the Gaseous Model under Cryogenic, Mechanical, and Hydrodynamic Stress

Abstract: This dataset and accompanying preprint present empirical evidence challenging the standard hydrodynamic classification of spherical vesicular entities (SVEs) observed in mineral water and aqueous solutions. While typically classified as "gas bubbles" (CO2 or air) based on visual approximation, this study demonstrates that these entities exhibit physical properties—including neutral buoyancy, incompressible structural integrity, and active motility—that are fundamentally incompatible with the gaseous phase of matter. Key Findings & Methodology: The research documents a series of stress-test experiments designed to isolate the state of matter of these entities: 1. Density Verification (The Syringe Control Test): Comparative analysis using injected atmospheric air confirms a distinct divergence in buoyancy. While control gas bubbles exhibit rapid vertical ascension due to density differentials (ρ-air ≪ρ-water), the observed SVEs adhere to fluid flow lines, recirculating downwards and laterally. This confirms a density approximating that of the liquid medium (ρ-entity ≈ρ-water), refuting the high-buoyancy gaseous model. 2. Gravitational Defiance in Hydrocarbons: Within saturated aliphatic hydrocarbons (media less dense than water), SVEs do not rise. Instead, they exhibit downward acceleration and multidirectional motility. It is physically impossible for a gas pocket to actively accelerate against the buoyant vector in a dense liquid, indicating the presence of substantive mass/energy. 3. Cryogenic Stress & The "Inverted Faraday Cage" Effect: Experiments subjected SVEs to the expansive pressure of freezing water (P>300MPa). In conductive containers (glass/copper), catastrophic failure occurred. In insulating plastic (PET) containers, SVEs maintained perfect spherical integrity, resisting the ice lattice pressure. We propose an "Inverted Faraday Cage" hypothesis, where electrical insulation modulates the freezing dynamics. Crucial Evidence: Post-freezing microscopic analysis reveals brittle fracture of the internal components of the SVEs. Since a gas bubble (a void) cannot suffer structural fracture, this provides definitive proof of a solid or semi-solid internal constitution. 4. Microscopic Kinematics ("ISO 9001" Pattern): High-magnification optical microscopy reveals that SVEs exhibit rectilinear motion, obstacle avoidance (steering without coalescence), and precise "parking" behavior. The entities maintain a rigorous morphological uniformity (termed the "ISO 9001 Pattern") regardless of agitation, contrasting with the chaotic size variance of standard gas bubbles. Implications: These findings suggest that the observed entities are not passive pneumatic inclusions, but Structured Vesicular Entities (SVEs) organized by energetic or magnetic principles distinct from standard fluid thermodynamics. This dataset includes the full preprint PDF and a comprehensive supplementary video compiling the raw experimental data.