Incompatibility between the principle of the constancy of the speed of light and the Lorentz contraction in the GPS Experiment
Masanori Sato

TL;DR
This paper discusses the apparent contradiction between the constancy of light speed and Lorentz contraction in GPS, questioning the compatibility of special relativity with observed GPS accuracy.
Contribution
It highlights the inconsistency between Lorentz contraction predictions and GPS precision, suggesting a need to re-examine relativistic assumptions in gravitational fields.
Findings
GPS accuracy contradicts expected Lorentz contraction effects at high velocities
Lorentz contraction is not observed in Earth's gravitational field
The paper questions the compatibility of special relativity with GPS operation
Abstract
Incompatibility between the principle of the constancy of the speed of light and the Lorentz contraction in the global positioning system (GPS) is discussed. The GPS works precisely in the earth-centered locally inertial (ECI) coordinate system on the condition that the speed of light c is assumed to be constant regardless of the inertial motion of the GPS satellites and the earth. The inertial system of the earth travels not only in the solar system at the velocity 30 km/s but also in the cosmic microwave background (CMB) at the velocity 700 km/s. The deviation on the car navigation system by the Lorentz contraction of 700 km/s is maximally estimated as 54 m. However, such a large deviation is not observed: that is, the Lorentz contraction is not observed in the gravitational field of the earth. If there is a Lorentz contraction, the GPS cannot work so precisely. The GPS satellites are…
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Taxonomy
TopicsRelativity and Gravitational Theory · Geophysics and Gravity Measurements · History and Developments in Astronomy
