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评估生命系统中的生物物理能量转移机制:生命过程的基础。

Assessing biophysical energy transfer mechanisms in living systems: the basis of life processes.

作者信息

Korotkov Konstantin, Williams Berney, Wisneski Leonard A

机构信息

St. Petersburg Technical University ITMO, Russia.

出版信息

J Altern Complement Med. 2004 Feb;10(1):49-57. doi: 10.1089/107555304322848959.

Abstract

OBJECTIVE

To explain the energetic physiologic basis for acupuncture electroconductance effects and for gas discharge visualization (GDV) assessment methods, using a quantum biophysical model of entropy and information flows.

DESCRIPTION

The main reservoir of free energy in biologic processes is electron-excited states of complex molecular systems. Communities of delocalized excited pi-electrons in protein macromolecules are the basis of this energy reservoir. Specific structural-protein complexes within the mass of the skin provide channels of heightened electron conductivity, measured at acupuncture points on the surface. Stimulated impulse emissions from the skin are also developed mainly by transport of delocalized pi-electrons. Stimulated by high voltage impulses, optical emissions, with amplification in gaseous discharge, are registered by optical sensors (GDV). This quantum model supports an argument that GDV techniques provide indirect judgment about the level of energy resources at the molecular level of functioning in structural-protein complexes. Several years of GDV research have provided clinical correlations with well-accepted physiologic parameters. For example, postsurgery recovery progress is correlated with GDV parameters and GDV assessments provide independent diagnostic measures of psychophysical reserves in athletes.

CONCLUSION

GDV methods for investigating human functional states, by assessing electro-optical parameters of the skin, are based on the registration of physical processes emerging from electron components of tissue conductivity.

摘要

目的

运用熵与信息流的量子生物物理模型,解释针刺电导效应和气态放电可视化(GDV)评估方法的能量生理基础。

描述

生物过程中自由能的主要储存库是复杂分子系统的电子激发态。蛋白质大分子中离域激发π电子群落是这个能量储存库的基础。皮肤团块内特定的结构 - 蛋白质复合物提供了在表面针刺点测得的增强电子传导通道。皮肤的刺激脉冲发射也主要由离域π电子的传输产生。在高压脉冲刺激下,光学发射在气体放电中得到放大,并由光学传感器(GDV)记录。这个量子模型支持这样一种观点,即GDV技术提供了关于结构 - 蛋白质复合物功能分子水平上能量资源水平的间接判断。数年的GDV研究已提供了与公认生理参数的临床相关性。例如,术后恢复进程与GDV参数相关,且GDV评估为运动员的心理生理储备提供了独立的诊断手段。

结论

通过评估皮肤的电光参数来研究人体功能状态的GDV方法,基于对组织电导率电子成分所产生物理过程的记录。

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