Zhadin M N, Bakharev B V, Bobkova N V
Biofizika. 2014 Jul-Aug;59(4):829-32.
The fundamental physical mechanisms of resonance action of an extremely weak (40 nT) alternating magnetic field at the cyclotron frequency combined with a weak (40 μT) static magnetic field, on living systems are analyzed in the present work. The experimental effects of such sort of magnetic fields were described in different papers: the very narrow resonant peaks in electrical conductivity of the aqueous solutions in the in vitro experiments and the biomedical in vivo effects on living animals of magnetic fields with frequencies tuned to some amino acids. The existing experimental in vitro data had a good repeatability in different laboratories and countries. Unfortunately, for free ions such sort of effects are absolutely impossible because the dimensions of an ion rotation radius should be measured by meters at room temperature and at very low static magnetic fields used in all the above experiments. Even for bound ions these effects should be also absolutely impossible from the positions of classic physics because of rather high viscosity of biological liquid media (blood plasma, cerebrospinal liquid, cytoplasm). Only modern quantum electrodynamics of condensed media opens the new ways for solving these problems. The proposed article is devoted to analysis of quantum mechanisms of these effects.
本文分析了极弱（40 nT）的交变磁场在回旋加速器频率下与弱（40 μT）的静磁场共同作用于生命系统时的共振作用的基本物理机制。不同论文中描述了这类磁场的实验效应：体外实验中水溶液电导率出现的极窄共振峰，以及频率调谐到某些氨基酸的磁场对活体动物的生物医学体内效应。现有的体外实验数据在不同实验室和国家都具有良好的可重复性。不幸的是，对于自由离子来说，这种效应是绝对不可能的，因为在室温以及上述所有实验中使用的极低静磁场下，离子旋转半径的尺寸应以米为单位来衡量。即使对于结合离子，从经典物理学的角度来看，由于生物液体介质（血浆、脑脊液、细胞质）的粘度相当高，这些效应也应该是绝对不可能的。只有现代凝聚介质量子电动力学为解决这些问题开辟了新途径。本文致力于分析这些效应的量子机制。
