论文标题
磁性单极的超热等离子体作为物质的第五阶段：在热等离子体培养基中N-S磁的粘结分离条件和固体的超晶格
Ultra-Hot plasma of magnetic monopoles as fifth phase of matter: Bonding dissociation conditions of N-S magnetic in a hot plasma medium and superlattices of solids
论文作者
论文摘要
磁原子具有N和S的两个磁极，在正常条件下，即使在很小的原子尺寸中，也不会发生磁极的分离。磁偶极子的存在是由于磁性材料的基本特性，属于电子的内在自旋。对于电子，N和S磁极被考虑，类似于电流环。本文的目的是通过提供谐波振荡器简单模型来估计N-S极点的分离能以及相应的分解温度和内部压力，从而使用N-S极的量子磁性粒子的量子磁粒子进行了分解能量。结果表明，磁极的分离发生在两个状态：（a）在具有极高温度的超热等离子体介质中，例如在热星的中心，（b）在极高的压力下，例如在复杂的分层固体超级晶格中的内部平板之间。可以证明，分解温度按θ= 107至108开尔文的顺序。该温度非常高，仅在超热等离子体环境中作为物质的第五阶段发生。此外，基于此模型，我们计算出，固体晶格的N和S磁极之间键解离的可能性发生在晶体板之间的很高压力下。根据这些结果，在超高压条件下固体超晶格中存在分离的磁单酮。因此，该模型表明，磁性单极携带的电导率可用于操纵纳米材料，以用于生产高级设备的应用，例如新一代超导体，新的自旋设备和带有磁性单极管和超级磁性的磁性高级材料。
A magnetic atom has two magnetic poles of N and S, and in normal conditions, separation of magnetic poles cannot be happened, even in very small atomic dimensions. Existence of magnetic dipoles is due to a fundamental property of magnetic materials and belongs to intrinsic spin of electrons. For the electron, N and S magnetic poles are considered, similar to a current loop. The aim of this paper is theoretical calculate dissociation energy of N-S poles a quantum magnetic particle with two approaches of classical and quantum mechanics by providing a harmonic oscillator simple model to estimate dissociation energy of the N-S poles and corresponding breakdown temperature and internal pressure. The results showed that separation of magnetic poles occurs in two states: (a) in an ultra-hot plasma medium with extremely high temperatures, such as in the center of a hot star, and (b) at extremely high pressures, such as between internal plates in complex superlattices of layered solids. It will be shown that breakdown temperature is in order of θ =107 to 108 Kelvin. This temperature is very high and it only happens in an ultra-hot plasma environment as fifth phase of matter. In addition, based on this model, we calculated that the possibility of dissociation of bonds between N and S magnetic poles for solid superlattices occurs at very high pressures between crystal plates. According to these results, the presence of isolated magnetic monopole in superlattices of solids under ultra-high-pressure conditions is possible. Therefore, this model suggests that the conductivity of magnetic monopole carries can be used in the manipulation of nanomaterials for applications in the production of advanced devices such as new generation of superconductors, new spin devices and magnetic-electronics advanced materials with magnetic monopoles and super-dielectrics.
