在排斥场中扩展体的轨道:朝向一个电磁束缚的原子核

D. L. Selke
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引用次数: 0

摘要

点粒子假设是不合理的。受Randell Mills经典扩展电子模型的启发,我们提出了一个不对称带正电的环能否以稳定的方式围绕一个正点电荷运行的问题。我们对这个系统进行了500万步的数值模拟,发现点仍然在环内。环和点代表两个在排斥力作用下运行的简化质子,这种行为在点电荷中是不可想象的,但在自然界中可能会发生。给出了仿真源代码。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Orbit of an Extended Body in a Repulsive Field: Toward an Electromagnetically Bound Nucleus
The point particle assumption is unjustified. Inspired by Randell Mills’ classical extended electron model, we ask whether an asymmetrically positively charged ring can orbit a positive point charge in a stable manner. We numerically simulate this system up to five million time steps and find that the point remains inside the ring. The ring and point represent two simplified protons that orbit under repulsion, a behavior inconceivable with point charges, but which may occur in nature. The simulation source code is provided.
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