[论文解读] Atoms of electron transition deform or elongate but do not ionize while inert gas atoms split under photonic current instead of electric

Mubarak Ali|arXiv (Cornell University)|Nov 16, 2016

Quantum Mechanics and Applications被引用 11

一句话总结

该论文提出，惰性气体原子在光子流作用下会分裂成电子束流，而非电离，光子使原子结构发生形变，从而在不发生电离的情况下实现电子动力学。论文认为，电流本质上是光子流，通过光子诱导的原子形变和类离子体辉光，重新定义了气体和固体中的电子行为。

ABSTRACT

In many studies, atoms deal with the positive or negative charges by losing or gaining their electrons, but atoms can execute interstate electron dynamics while dealing with a dedicated state. When gaseous or solid atoms undertake different transition states, electrons can deal with infinitesimal displacements by remaining within their occupied energy knots. Such possibilities show that atoms cannot ionize, but the inert gas atoms can split into the electron streams. A generated field of the propagating photons can distort the flowing inert gas atoms. On splitting inert gas atoms, electrons carry forcing energy of the chasing photons. Moreover, solid atoms deform or elongate when travelling electrons impinge on them. Gaseous atoms also undertake squeezing, where the contraction of energy knots takes place. Such behaviors of the atoms also indicate that they do not ionize. On splitting flowing inert gas atoms due to the current of photons, the characteristics of propagating photons become obvious. On propagating the photons in air medium, the element of heat energy dissipates while the element of force confines, so a glow of light known as plasma appears. The splitting of inert gas atoms into the electron streams, the carrying of photons by the electrons, and the lighting of travelling photons infer that electric current is a photonic current. A magnification of image is based on the resolving power of photons in microscopic analysis. A photonic current is due to the propagation of featured photons through interstate electron gap or photonic band gap. Some important principles are also discussed here, which infer the photonic current. Indeed, the study brings about vast changes in the existing state of science and technology.

研究动机与目标

• 挑战原子在外场作用下电离的传统理解。
• 研究惰性气体原子在光子流作用下而非电场作用下的行为。
• 探讨光子传播在扭曲原子结构及促进电子束流形成中的作用。
• 建立一个将电流重新解释为通过跨态电子动力学实现的光子流的理论框架。
• 证明原子形变与电子束流形成可在不发生电离的情况下发生，尤其是在气态和固态中。

提出的方法

• 通过分析过渡态中能量结点内电子位移，研究原子对光子流的响应。
• 研究传播光子对惰性气体原子的影响，重点在于分裂成电子束流而非电离。
• 研究电子撞击引起的固体原子中光子诱导的原子形变与拉长。
• 研究气态原子在光子作用下能量结点被压缩，作为非电离行为的标志。
• 将空气中光子传播与通过热耗散和力约束形成的类等离子体辉光联系起来。
• 提出光子流通过跨态电子间隙或光子带隙中的光子传播而运作。

实验结果

研究问题

• RQ1 在光子流作用下，惰性气体原子是否可在不发生电离的情况下分裂成电子束流？
• RQ2 传播光子如何在气态和固态中扭曲原子结构？
• RQ3 电子在原子分裂过程中如何通过追逐光子携带驱动力量？
• RQ4 光子在空气中传播如何通过能量耗散和力约束导致可观测的类等离子体辉光？
• RQ5 光子流的概念如何挑战传统电流的定义？

主要发现

• 惰性气体原子在光子流作用下分裂成电子束流而非电离，表明存在非电离电子动力学。
• 原子在电子穿行时发生形变或拉长，表明其在不电离的情况下仍具有结构韧性。
• 气态原子的能量结点被压缩，是无电离收缩的标志。
• 光子在空气中传播导致热耗散和力约束，形成可见辉光，与等离子体形成一致。
• 电子在原子分裂过程中携带光子，支持了电流本质上是光子流的论断。
• 通过光子作用下原子结构的放大，光子在显微分析中的分辨能力得到增强。