Burnei G, Hodorogea D, Georgescu I, Gavriliu Ş, Drăghici I, Dan D, Vlad C, Drăghici L
M.S. Curie Emergency Pediatric Hospital, Bucharest, Romania.
J Med Life. 2012 Jun 12;5(2):139-44. Epub 2012 Jun 18.
One of the most important factors is the technical and scientifically rapid development that is continually modifying the world we live in and polluting it with electromagnetic radiations. A functional and structural influence of magnetic and electromagnetic field on living organisms is presented in the literature by many performed experiments.
The notion of bio-field represents the electromagnetic field generated by the bio-structures, not only in their normal physiological activities but also in their pathological states. There is a tight interdependency between the bio-field and the bio-structure, which respects the primary notion of an electromagnetic field given by the Maxwell-Faraday laws, in which, the electromagnetic phenomena are simplified to the field variations. These variations can be expressed in a coherent differential equation system that bounds the field vectors to different space points at different time moments.
The living organisms cannot contain electrostatic and magneto-static fields due to the intense activity of the bio-structures. The biochemical reactions that have high rhythms and speeds always impose the electrodynamics character of the biologic field that also corresponds to the stability of the protein molecule that can be explained only through a dynamic way. The existent energy is not considered an exciting agent, and it does not lead to any effects.
The parameters of these elementary bio-fields cannot yet be fully known due to technical reasons. The biological structures are very complex ones and undergo continuous dynamical activity. That is why the calculus model should be related to the constant dynamics, nowadays being very difficult to express.
最重要的因素之一是技术和科学的快速发展,这种发展不断改变着我们生活的世界,并以电磁辐射污染它。许多已开展的实验在文献中呈现了磁场和电磁场对生物的功能和结构影响。
生物场的概念代表生物结构产生的电磁场,不仅在其正常生理活动中,而且在其病理状态下。生物场与生物结构之间存在紧密的相互依存关系,这符合麦克斯韦 - 法拉第定律给出的电磁场基本概念,其中电磁现象被简化为场的变化。这些变化可以用一个连贯的微分方程组来表示,该方程组在不同时刻将场矢量与不同空间点联系起来。
由于生物结构的强烈活动,生物体无法包含静电场和静磁场。具有高节奏和速度的生化反应总是赋予生物场电动力学特征,这也对应于蛋白质分子的稳定性,而这只能通过动态方式来解释。现存的能量不被视为激发剂,也不会导致任何效应。
由于技术原因,这些基本生物场的参数尚未完全清楚。生物结构非常复杂且经历持续的动态活动。这就是为什么计算模型应与持续的动态相关,而目前很难表达这种动态。