引力场中运动粒子的电动力学
On the Electrodynamics of Moving Particles in Gravitational Fields
摘要：
目前的工作旨在寻找时空中新对称性的实现，以便使我们能够找到电动力学和引力之间的联系，量子原理自然出现。为此，首先我们建立了一个启发式的模型，电磁性质的电子，使引力场的影响，电动力学的这种运动粒子导致我们基本上消除了经典的想法休息，通过引进的想法，一个普遍的最低限度的速度（$V$）。这种粒子无法达到的最低极限$V$代表了一个基本的和优选的参考系，该参考系连接到破坏洛伦兹对称性的通用背景场（真空能量）。因此，出现了一个新的对称性原则，在亚原子水平的非常低的能量接近背景帧（$v\approx V$）的时空，提供了一个基本的理解不确定原理。
英文摘要：
The present work aims to search for an implementation of new symmetries in the space-time in order to enable us to find a connection between electrodynamics and gravitation, from where quantum principles naturally emerge. To do that, first of all we build a heuristic model of the electromagnetic nature of the electron so that the influence of the gravitational field on the electrodynamics of such moving particle leads us essentially to an elimination of the classical idea of rest by introducing the idea of a universal minimum limit of speed ($V$). Such a lowest limit $V$, being unattainable by the particles, represents a fundamental and preferred reference frame connected to a universal background field (a vacuum energy) that breaks Lorentz symmetry. So there emerges a new principle of symmetry in the space-time at the subatomic level for very low energies close to the background frame ($v\approx V$), providing a fundamental understanding for the uncertainty principle.
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