论文标题
Bose-Einstein凝结过程和超导性的研究
Study of Bose-Einstein Condensation Process and Superconductivity
论文作者
论文摘要
从正常状态到超导状态的过渡是一种凝结（Bose-Einstein凝结）过程。作为Bose-Einstein凝结的一个例子，详细研究了超导性的冷凝过程。超导性的基本单位是凝结电路，该电路应包含4M+2（M = 1,2，...）电子（孔）。通过使用冷凝电路给出了无电阻和完整电磁作用的完美解释。构建了超导状态的量子力学方程，并给出了超导量子状态的能级方程。后来的方程式具有简单的形式（i是单位矩阵，a是相邻矩阵），具有深层拓扑含义。从正常状态到超导状态的相变是不可逆的。不可逆的过程进行了详细分析和讨论。计算超导状态的温度区域。超导电路的最简单结构是一个冷凝电路，由一系列3-4个元素电路（称为灯笼串联结构）组成。从理论上讲，可以通过使用氧化多氧化物结构来实现室温超导性。提出了室温超导性的实验框架。
The transition from normal state to superconductive state is a condensation (Bose-Einstein condensation) process. As an example of Bose-Einstein condensation, the condensation process of superconductivity is investigated in detail. The basic unit of superconductivity is condensation circuit, which should contain 4m+2 (m=1,2,...) electrons (holes). The perfect explanation for no resistance and complete diamagnetism are given by using condensation circuit. The quantum mechanics equation of superconductive state is constructed, and energy level equation of superconductive quantum state is given. The later equation has simple form (I is the unit matrix, A is the adjacent matrix), with deep topological meanings. The phase transition from normal state to superconductive state is irreversible. The irreversible process is analyzed and discussed in detail. The temperature region of superconductive state is calculated. The simplest structure of superconductor circuit is a condensation circuit which is composed of a series of 3-4-element-circuits (called lantern series structure). It is theoretically proved that the room temperature superconductivity can be realized by using polylayer oxide structure. The experimental frame of room temperature superconductivity is suggested.
