Published research overview
Plasma Resonator Phase Stabilisation
A plain-language and technical overview of the 2026 chapter on feedback control, phase locking, entropy-aware monitoring, tearing thresholds, and staged validation.
Research Snapshot
Status: published computational study
Research question: Can active feedback preserve resonator phase alignment?
Method: time-resolved numerical simulation
Main finding: stable phase locking within defined bounds
Critical boundary: tearing threshold
Evidence Boundary
Evidence level: computational.
Not claimed: experimental quantum coherence, construction of a quantum resonator, or discovery of a fundamental scalar field.
The reported coherence is classical or semiclassical within the model. Quantum coherence would require direct measurement of quantum-state behavior and quantum observables.
Control architecture
Feedback-mediated phase regulation
The controller compares the evolving resonator phase with a desired phase relationship and applies corrective action when the modeled system begins to drift. The purpose is not to eliminate all motion, but to maintain a bounded relationship among relevant oscillatory channels.
Entropy-aware monitoring tracks whether the system is becoming increasingly disordered or difficult to regulate, helping distinguish recoverable drift from an approaching instability.
Key Findings
Stable Operating Region
The feedback system can rapidly drive the modeled resonator toward phase locking and maintain coherence within a defined operating region.
Tearing Threshold
A critical tearing threshold marks the point beyond which corrective feedback can no longer preserve alignment.
Validation Path
The control architecture is computationally testable and can be translated into staged hardware-in-the-loop and classical resonator experiments.
Citation and Direct Access
Covington, D. (2026). “Active Phase Stabilisation in a Plasma Resonator Using Feedback Control and Auxiliary Scalar-like Coupling.” New Horizons of Science, Technology and Culture, Vol. 9, 128–153. https://doi.org/10.9734/bpi/nhstc/v9/6896