Unified derivation of the Galileo and the Lorentz transformations
D. Sardelis
Abstract
Open-access reader
D. Sardelis
Abstract
Open-access reader
By using the principle of relativity together with the general assumptions of space-time homogeneity and space isotropy underlying the principle of inertia, a most general transformation is constructed connecting any two inertial frames. The Galileo and the Lorentz transformations are then deduced by constraining these general inertial transformations through the corresponding two physical principles: the (classical) principle of acceleration invariance and the (relativistic) principle that all interactions propagate with the same finite and invariant speed.
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By using the principle of relativity together with the general assumptions of space-time homogeneity and space isotropy underlying the principle of inertia, a most general transformation is constructed connecting any two inertial frames. The Galileo and the Lorentz transformations are then deduced by constraining these general inertial transformations through the corresponding two physical principles: the (classical) principle of acceleration invariance and the (relativistic) principle that all interactions propagate with the same finite and invariant speed.
Key concepts: Physics, One-way speed of light, Inertial frame of reference, Principle of relativity, Classical mechanics, Lorentz transformation, Velocity-addition formula, Isotropy