In-Depth Radiofrequency Analysis using the CAM Model: Exhaustive Observational Evidence of VLS, RTLT Metrology, and Doppler Anomaly Resolution

This volume consolidates a fine-structure algorithmic and metrological calibration within the framework of Classical Adapted Mechanics (CAM), exhaustively deconstructing the round-trip light time (Round-Trip Light Time, RTLT) and the raw Doppler records of the interstellar platforms Pioneer 10/11, Voyager 1/2 and New Horizons. Breaking with the contemporary institutional dogma of the static virtual invariance of the speed of light (c₀), this research reveals that the deep interstellar vacuum operates as a residual refractive and dispersive material medium, where the electromagnetic acceleration rate (𝑎𝛾) posterior to the Activation Threshold of 20 UA is not a fixed constant, but an inverse and dynamic function of the carrier radiofrequency and its wavelength (𝜈 ↑ ==> 𝑎𝛾 ↓). Through the formalism of a mathematical model of approximation by Residual Dielectric Form Factor (Φ𝜈), it is quantitatively demonstrated how centimeter microwaves in the S and X Bands experience a geometric hypersensitivity before the decompression of the outer heliospheric plasma, registering accelerated rates of ∼ 95y ∼ 37 cm/s/year respectively in the ground counters of the DSN. Likewise, the definitive analytical and historical bridge with our previous literature is established, demonstrating that by monotonically projecting the model toward the asymptotic optical limit of the visible spectrum (nanometric scale), the effective acceleration rate converges around the baseline 2.72 cm/s/year, guaranteeing that the hyperbolic impulse can reach to project in a deterministic way the speed of light toward the limit of double its standard value (2c₀) in cosmological distances. By treating Doppler anomalies not as elastic distortions of the spacetime fabric or failures due to thermal shear, but rather as a solved problem of classical resistance within nonhomogeneous media.