惯性的量子起源与自相互作用电子的辐射反应
The quantum origin of inertia and the radiation reaction of self-interacting electron
摘要：
自相互作用类电子量子粒子的内部结构与时空位置无关。那么至少无限小的运动学时空移动、旋转或推进导致等价的内部量子态。这个假设可以被看作惯性原理的内部（量子）公式。量子系统的动力学变换通常会导致内部量子态的变形，这种变形的度量可以作为力的量子对应物而不是宏观加速度。由于惯性的原因，从而导致量子态的内部运动及其对动力学量子态形变的作用。本文在自相互作用相对论扩展量子电子的“本征动力学”框架下讨论了惯性的量子起源，即在“虚测量”过程中，自旋和电荷的“快”自由度对“慢”驱动环境的反作用导致了动力学四维时空中非阿贝尔规范场的出现.简化动力学的分析已被应用到与以前的电子模型的逃逸解的关系的能量-动量行为。
英文摘要：
The internal structure of self-interacting quantum particle like electron is independent on space-time position. Then at least infinitesimal kinematic space-time shift, rotation or boost lead to the equivalent internal quantum state. This assumption may be treated as internal (quantum) formulation of the inertia principle. Dynamical transformation of quantum setup generally leads to deformation of internal quantum state and measure of this deformation may be used as quantum counterpart of force instead of a macroscopic acceleration. The reason of inertia arises, thereby, as a consequence an internal motion of quantum state and its reaction on dynamical quantum setup deformation. The quantum origin of the inertia has been discussed in this article in the framework of "eigen-dynamics" of self-interacting relativistic extended quantum electron. Namely, a back reaction of spin and charge "fast" degrees of freedom on "slow" driving environment during "virtual measurement" leads to the appearance of state dependent non-Abelian gauge fields in dynamical 4D space-time. Analysis of simplified dynamics has been applied to the energy-momentum behavior in the relation with runaway solutions of previous models of an electron.
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