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International Journal of Theoretical Physics

Reply to Lambare’s “Comment on “Entangled Simultaneity: Testing Lorentz and Light Speed Invariance with quantum and classical entanglement””

Gianfranco Spavieri

Published Mar 10, 2026• 2 citations
Publisher
DOI
10.1007/s10773-026-06289-2

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Entangled Simultaneity: Testing Lorentz and Light-Speed Invariance with Quantum and Classical Entanglement

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In a rod of length AB \(= L\), rotating uniformly, any two spatially separated points along the rod are connected in a way that shows analogies with the quantum entanglement of the spin of particles. This ”classical entanglement” reflects the simultaneity preset in the system, which can be used for syncing two distant clocks, one at A and the other at B. Since it differs from Einstein synchronization, this procedure can be adopted for testing the one-way light speed and Lorentz invariance. Applications to optical Sagnac effects confirm that a consistent interpretation requires the adoption of absolute versus relative simultaneity.

Qeios•Dec 3, 2024•0 citations

Entangled Simultaneity: Testing Lorentz and Light-Speed Invariance with Quantum and Classical Entanglement

Gianfranco Spavieri, Juan Carlos Mendoza Sánchez, Ramón Carrasquero +3 more

In a rod of length AB \(= L\), rotating uniformly, any two spatially separated points along the rod are connected in a way that shows analogies with the quantum entanglement of the spin of particles. This ”classical entanglement” reflects the simultaneity preset in the system, which can be used for syncing two distant clocks, one at A and the other at B. Since it differs from Einstein synchronization, this procedure can be adopted for testing the one-way light speed and Lorentz invariance. Applications to optical Sagnac effects confirm that a consistent interpretation requires the adoption of absolute versus relative simultaneity.

Qeios•Oct 29, 2024•1 citation
In a rod of length AB =L= L=L, rotating uniformly, any two spatially separated points along the rod are connected in a way that shows analogies with the quantum entanglement of the spin of particles. This ”classical entanglement” reflects the simultaneity preset in the system, which can be used for syncing two distant clocks, one at A and the other at B. Since it differs from Einstein synchronization, this procedure can be adopted for testing the one-way light speed and Lorentz invariance. Applications to optical Sagnac effects confirm that a consistent interpretation requires the adoption of absolute versus relative simultaneity.
In a rod of length AB =L= L=L, rotating uniformly, any two spatially separated points along the rod are connected in a way that shows analogies with the quantum entanglement of the spin of particles. This ”classical entanglement” reflects the simultaneity preset in the system, which can be used for syncing two distant clocks, one at A and the other at B. Since it differs from Einstein synchronization, this procedure can be adopted for testing the one-way light speed and Lorentz invariance. Applications to optical Sagnac effects confirm that a consistent interpretation requires the adoption of absolute versus relative simultaneity.