THEORETICAL EVIDENCE OF A SUPERLUMINAL CARRIER

After reviewing the fundamental details of the inertial field and light carrier, we deduce the superluminal carrier using the Schrodinger time-dependent equation (STDE), introducing as coefficient of the wave-function the inertial potential provided by the general exponent ac. By solving the STDE we obtain the superluminal potential field, the group velocity, and the force of the electromagnetic field responsible for the wave propagation. A short discussion makes some reference to tachyons and theoretical and experimental evidence of superluminality. Conclusions touch on crucial reflections about the concept of causality and on the advance constituted by the stability of the electromagnetic signal, determined by the inertial field on both ordinary and superluminal light velocity. In the conclusion we also deduce the linear momentum theorem for a spaceship planned to travel at superluminal velocity. From this idea we try to dissolve the apparent paradox between the existence, and its barriers, of theoretical and experimental evidence linked to velocities greater than c. Key words: electron-positron annihilation, inertial field, Poynting vector, light carrier, superluminal carrier, electromagnetic field, Schrodinger time-dependent equation, superluminal velocity, superluminal potential, superluminal force, signal stability, special theory of relativity, Einstein-Podolsky-Rosen paradox, tachyons, causality Apres la revision des details fondamentaux du champ inertiel et du vecteur lumineux, nous deduisons le vecteur superlumineux moyennant l'equation de Schrodinger dependante du temps (STDE), introduisant comme coefficient de la fonction d'onde, le potentiel inertiel munit de l'exposant ac. Apres resolution de la STDE, on a obtenu le champ potentiel superlumineux, la vitesse de groupe et la force du champ electromagnetique responsable pour la propagation des ondes. Une breve discussion fait quelque reference aux tachyons et aux evidences theoriques et experimentales de la superluminosite. Les conclusions touchent aux reflexions cruciales sur le concept de causalite et sur le progres constitue par la stabilite du signal electromagnetique determinee par le champ inertiel lumiere, ordinaire et superlumineuse. Encore dans les conclusions, on a deduit le theoreme du moment lineaire pour une nef spatiale projetee pour voyager a la vitesse superlumineuse. A partir de cette idee, nous essayons de dissoudre l'apparence paradoxale entre l'existence, et ses embuches, des evidences theoriques et experimentales enchainees a des vitesses plus grandes que c.

Publication Details

Journal
LA Referencia (Red Federada de Repositorios Institucionales de Publicaciones Científicas)
Published
2025-10-01
DOI
https://doi.org/10.5281/zenodo.17245779
Primary Topic
Latin American socio-political dynamics
Type
article
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article

THEORETICAL EVIDENCE OF A SUPERLUMINAL CARRIER

LA Referencia (Red Federada de Repositorios Institucionales de Publicaciones Científicas)
Latin American socio-political dynamics
article

THEORETICAL EVIDENCE OF A SUPERLUMINAL CARRIER

article en

Abstract

After reviewing the fundamental details of the inertial field and light carrier, we deduce the superluminal carrier using the Schrodinger time-dependent equation (STDE), introducing as coefficient of the wave-function the inertial potential provided by the general exponent ac. By solving the STDE we obtain the superluminal potential field, the group velocity, and the force of the electromagnetic field responsible for the wave propagation. A short discussion makes some reference to tachyons and theoretical and experimental evidence of superluminality. Conclusions touch on crucial reflections about the concept of causality and on the advance constituted by the stability of the electromagnetic signal, determined by the inertial field on both ordinary and superluminal light velocity. In the conclusion we also deduce the linear momentum theorem for a spaceship planned to travel at superluminal velocity. From this idea we try to dissolve the apparent paradox between the existence, and its barriers, of theoretical and experimental evidence linked to velocities greater than c. Key words: electron-positron annihilation, inertial field, Poynting vector, light carrier, superluminal carrier, electromagnetic field, Schrodinger time-dependent equation, superluminal velocity, superluminal potential, superluminal force, signal stability, special theory of relativity, Einstein-Podolsky-Rosen paradox, tachyons, causality Apres la revision des details fondamentaux du champ inertiel et du vecteur lumineux, nous deduisons le vecteur superlumineux moyennant l'equation de Schrodinger dependante du temps (STDE), introduisant comme coefficient de la fonction d'onde, le potentiel inertiel munit de l'exposant ac. Apres resolution de la STDE, on a obtenu le champ potentiel superlumineux, la vitesse de groupe et la force du champ electromagnetique responsable pour la propagation des ondes. Une breve discussion fait quelque reference aux tachyons et aux evidences theoriques et experimentales de la superluminosite. Les conclusions touchent aux reflexions cruciales sur le concept de causalite et sur le progres constitue par la stabilite du signal electromagnetique determinee par le champ inertiel lumiere, ordinaire et superlumineuse. Encore dans les conclusions, on a deduit le theoreme du moment lineaire pour une nef spatiale projetee pour voyager a la vitesse superlumineuse. A partir de cette idee, nous essayons de dissoudre l'apparence paradoxale entre l'existence, et ses embuches, des evidences theoriques et experimentales enchainees a des vitesses plus grandes que c.

LA Referencia (Red Federada de Repositorios Institucionales de Publicaciones Científicas)
Openalex Percentile: Top 37%
Latin American socio-political dynamics
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