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研究扎丁氏细胞中的Icr效应。

Investigating the Icr Effect in a Zhadin's Cell.

作者信息

Giuliani L, D'Emilia E, Grimaldi S, Lisi A, Bobkova N, Zhadin M N

机构信息

ISPESL-Istituto Superiore per la Prevenzione e la Sicurezza del Lavoro, Centro Ricerche di Monteporzio Catone, Roma, Italy;

出版信息

Int J Biomed Sci. 2009 Jun;5(2):181-6.

Abstract

Investigations into the ion cyclotronic resonance (ICR) in living matter confront the so called Zhadin effect (12), whose explanation is not fully achieved. Several attempts have been done to explain this phenomenon, the most interesting of which is based on Quantum Electrodynamics (18): the molecules of water, the ions and the biomolecules form extended mesoscopic regions, called Coherence Domains (CD), where they oscillate in unison between two selected levels of their spectra in tune with a self-produced coherent E.M. field having a well defined frequency, dynamically trapped within the CD. Moreover, it is possible, to induce, by an external applied field (either hydrodynamical or EM) or also by a chemical stimulation, coherent excitations of CD's that give rise to electric currents circulating without friction within the CD's: as a consequence magnetic fields are produced. A resonating magnetic field thus is able to extract the ions from the orbit and push them in the flowing current. Electrochemical investigation of the system suggested that the observed phenomenon involves the transitory activation of the anode due to ICR, followed by anode passivation due to the adsorption of amino acid and its oxidation products (18). This hypothesis induced us to investigate an alternate configuration of the experiment, removing the electrolytic cell and submitting a flask containing the solution into a condenser to be exposed to the proper ICR. Temperature and variable parameters involved in the effect have been investigated in order to overcome the randomness of the effect.

摘要

对生物体内离子回旋共振(ICR)的研究面临所谓的扎丁效应(12),其解释尚未完全达成。已经进行了几次尝试来解释这一现象,其中最有趣的是基于量子电动力学(18):水分子、离子和生物分子形成扩展的介观区域,称为相干域(CD),在其中它们在其光谱的两个选定能级之间同步振荡,与具有明确频率的自生相干电磁场调谐,动态地捕获在CD内。此外,有可能通过外部施加的场(流体动力学场或电磁场)或化学刺激来诱导CD的相干激发,从而产生在CD内无摩擦循环的电流:结果产生了磁场。因此,共振磁场能够将离子从轨道中提取出来并将它们推入流动的电流中。对该系统的电化学研究表明,观察到的现象涉及由于ICR导致阳极的短暂激活,随后由于氨基酸及其氧化产物的吸附导致阳极钝化(18)。这一假设促使我们研究实验的另一种配置,移除电解池并将装有溶液的烧瓶放入冷凝器中以暴露于适当的ICR。为了克服该效应的随机性,已经研究了该效应所涉及的温度和可变参数。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/2f02/3614765/03b8090edb10/IJBS-5-181_F1.jpg

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