The Successes of Relativity Explained through Classical Adapted Mechanics (CAM)
- 1Jorbai Group | Theoretical Research Division
Abstract
This paper deconstructs the historical predictive successes of Einstein's Relativity —specifically satellite time dilation, the theoretical viability of time travel, velocity constraints relative to inertial mass, and stellar light deflection— demonstrating that its geometric metric formalisms act as an abstract hardcoding loop that absorbs unaddressed classical mechanical, material, and inertial variables. Under the framework of Classical Adapted Mechanics (CAM), the field equation 𝐺μv = 𝜅𝑇μv is revealed as a virtual analytical proxy for the propagation latencies and phase densities of a real material medium within a flat Euclidean container space. First, the GPS network timeline is deconstructed, resolving the 38 μs/day operational offset as a pure classical balance between kinematic delay and orbital atomic decompression of the oscillator. Second, an absolute entropic veto against time travel to the past is established via strict adiabatic irreversibility constraints. Third, interstellar unlocking is substantiated, proving that inertial mass is a Newtonian invariant and that the 300,000 km/s boundary is merely a regional heliospheric confinement threshold. As the solar plasma dilutes, light experiences a frictionfree linear acceleration governed by the universal gradient 𝑎(gamma) ≈ 8.56 X 10^(-10) m/s^(2) ≡ 2.7 cm/s/year , an analytical correction that contracts the real distance to Andromeda to ~1.5 million light-years, absorbing the residual cosmological redshift without requiring dark matter or dark energy. Fourth, stellar light deflection is proven to arise from a pair of concurrent classical forces: Newtonian ballistic attraction and a chromatically invariant hydrodynamic shear stress torque. Finally, anomalous perihelion precessions are resolved through potential-delay kinematic equation coupled to the solar quadrupole moment.
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BibTeX
@misc{bailey2026successes,
title = {{The Successes of Relativity Explained through Classical Adapted Mechanics (CAM)}},
author = {Jorge O. Bailey},
howpublished = {Zenodo},
year = {2026},
month = oct,
doi = {10.5281/zenodo.23448848},
url = {https://zenodo.org/records/23448848},
note = {CC BY 4.0},
}
RIS
TY - UNPB
TI - The Successes of Relativity Explained through Classical Adapted Mechanics (CAM)
AU - Jorge O. Bailey
PY - 2026
DA - 2026/10/18
PB - Zenodo
DO - 10.5281/zenodo.23448848
UR - https://zenodo.org/records/23448848
AB - This paper deconstructs the historical predictive successes of Einstein's Relativity —specifically satellite time dilation, the theoretical viability of time travel, velocity constraints relative to inertial mass, and stellar light deflection— demonstrating that its geometric metric formalisms act as an abstract hardcoding loop that absorbs unaddressed classical mechanical, material, and inertial variables. Under the framework of Classical Adapted Mechanics (CAM), the field equation 𝐺μv = 𝜅𝑇μv is revealed as a virtual analytical proxy for the propagation latencies and phase densities of a real material medium within a flat Euclidean container space. First, the GPS network timeline is deconstructed, resolving the 38 μs/day operational offset as a pure classical balance between kinematic delay and orbital atomic decompression of the oscillator. Second, an absolute entropic veto against time travel to the past is established via strict adiabatic irreversibility constraints. Third, interstellar unlocking is substantiated, proving that inertial mass is a Newtonian invariant and that the 300,000 km/s boundary is merely a regional heliospheric confinement threshold. As the solar plasma dilutes, light experiences a frictionfree linear acceleration governed by the universal gradient 𝑎(gamma) ≈ 8.56 X 10^(-10) m/s^(2) ≡ 2.7 cm/s/year , an analytical correction that contracts the real distance to Andromeda to ~1.5 million light-years, absorbing the residual cosmological redshift without requiring dark matter or dark energy. Fourth, stellar light deflection is proven to arise from a pair of concurrent classical forces: Newtonian ballistic attraction and a chromatically invariant hydrodynamic shear stress torque. Finally, anomalous perihelion precessions are resolved through potential-delay kinematic equation coupled to the solar quadrupole moment.
ER -