By studying of a slender body moving in a fluid wave-medium, e.g., in air or in shallow water, it was found that the hydrodynamic momentum mass and the total energy of the fluid field can be expressed in forms of m = m₀ / √1-(v/c)² and E=mc2, where v is the body moving speed, c is the wave speed and is the hydrodynamic mass at the zero speed. Thus a hydrodynamic analogy to the relativistic particle motion in vacuum can be traced. The velocity dependence of mass and the mass-energy equivalence are universal for any wave medium, which should not be regarded as a consequence of relative Lorentz time-space, but one of the existence of wave in the medium. Its further inference leads to an even more significant physical picture. If the mass particle moves in an unbounded space at a supercritical speed, i.e. , waves are generated and radiated from it, like the Mach waves by the supersonic plane, and the particle itself experiences a resistance as reaction from the wave radiation. By an extension of this analogy, it can be interred from a hydrodynamic superconductive phenomenon that particles or waves can move possibly at a superluminal spe ... mehr

Zugehörige Institution(en) am KIT |
Institut für Kern- und Energietechnik (IKET) |

Publikationstyp |
Zeitschriftenaufsatz |

Jahr |
2016 |

Sprache |
Englisch |

Identifikator |
ISSN: 2160-049X, 2160-0503 URN: urn:nbn:de:swb:90-609479 KITopen ID: 1000060947 |

HGF-Programm |
32.01.12; LK 01 |

Erschienen in |
World Journal of Mechanics |

Band |
6 |

Seiten |
406-418 |

Schlagworte |
Hydrodynamic Mass, Water Waves, Special Relativity, Velocity Dependence of Mass, Mass-Energy Equivalence |

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