<p>This study presents an imaging-based diagnostic framework for analyzing energetic flow behavior in a 2025 luminous event recorded above Perth, Western Australia. A structured three-phase workflow, comprising classical enhancement, exploded-frame deconstruction, and coherence-phase reconstruction, was applied to fifteen selected frames from an approximately 990-frame mobile-camera video sequence. The method enabled recovery of fine-scale spectral, morphological, and coherence information not visible in the raw imagery. The processed frames revealed concentric luminous banding, torsional wake vortices, and nodal phase patterns suggestive of organized structures and internal coherence. By integrating optical-diagnostic techniques with principles from plasma dynamics, magnetohydrodynamics, and resonant-field modelling, the study demonstrates how consumer-grade imagery can yield meaningful data for flow-field research. The reconstructed features are consistent with organized energy transfer within a confined plasma envelope, potentially analogous to field-mediated mechanisms. Comparative benchmarking with established plasma and optical-lensing literature, including recent evidence for extra-dimensional gravitational effects, supports the interpretation of the observed patterns as coherent, repeatable, and physically grounded rather than artefactual. This interpretation is further supported by recent analyses of repeating Unidentified Anomalous Phenomena (UAP) signatures in Western Australia, which document boundary-layer effects such as nested energetic shells and localized lensing consistent with field-mediated interactions. The approach provides a reproducible workflow for characterizing resonant phenomena using opportunistic recordings. It offers a pathway for standardizing future investigations that combine high-frame-rate imaging, phase-coherence diagnostics, and multi-sensor validation to study adaptive boundary-layer behavior and flow control across aerospace and atmospheric contexts.</p>