This work presents a deterministic framework linking gravitational-wave strain data to Aether Physics Model (APM) quantities using Quantum Measurement Units (QMU). The approach integrates a QRFT-based signal analysis pipeline with a ledger-consistent mapping from detector strain to magnetic-charge flux amplitude and closure-coherence observables. Gravitational-wave strain h (t) is interpreted as a fractional deformation of Aether-unit geometry. The central result establishes a direct mapping from strain rate to magnetic-charge flux amplitude: ₕ=mₑ C²{eₑmax²}dhdt. \ This defines a deterministic transformation chain: (t) \;\;dhdt\;\;ₕ\;\;mflxₕ, ₕ represents normalized closure excitation. The QRFT analysis pipeline is reformulated using fixed structural parameters derived from Aether closure geometry: ₂₋ = 2, = 83, ₐₑ₅ₓ = 10^-25\ s. \ Chronovibrational delay is defined as\ t₂₇ₑ₎₍₎, ₇=1{Fq²}dhdt, a closure-response proxy derived from strain-rate dynamics. Worked examples using GW190521 and GW170817 demonstrate the strain-to-QMU mapping and the behavior of cross-detector coherence observables under a fixed-parameter pipeline. Subsequent off-source comparisons show that mean phase coherence and resonance-density measures alone are weak discriminators in interferometric strain data. Accordingly, this work is presented as a translation and methodology framework rather than a completed observational validation. It establishes a reproducible bridge between gravitational-wave observations and Aether closure variables while identifying transverse-rotational observables, such as inter-detector phase acceleration, as promising candidates for future investigation. All source code and analysis scripts are included to ensure reproducibility of the QRFT--APM pipeline and its application to publicly available gravitational-wave datasets.
Thomson et al. (Sun,) studied this question.