Potential risk resulting from the influence of static magnetic field upon living organisms. Numerically simulated effects of the static magnetic field upon metalloporphyrines

Q4 Environmental Science
BioRisk Pub Date : 2022-08-23 DOI:10.3897/biorisk.18.86616
W. Ciesielski, T. Girek, Zdzisław Oszczęda, J. Soroka, P. Tomasik
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引用次数: 2

Abstract

Background: An attempt to recognize the effects of a static magnetic field (SMF) of varying flux density on flora and fauna.. For this purpose the influence of static magnetic field upon molecules of Mg(II), Fe(II), Fe(III), Co(II), Co(III) and Cu(II) metalloporphyrins is studied. Methods: Computations of the effect of real SMF 0.0, 0.1, 1, 10 and 100 AFU (Arbitrary Magnetic Field Unit; here 1AMFU > 1000 T) flux density were performed in silico (computer vacuum) involving advanced computational methods. Results: The static magnetic field (SMF) decreased the stability of the metalloporphyrine molecules. This effect depended on the situation of the molecule in respect to the direction of the SMF of the Cartesian system. An increase in the value of heat of formation was accompanied by an increase in the dipole moment. It was an effect of deformations of the molecule which involved pyrrole rings holding the hydrogen atoms at the ring nitrogen atoms and the length of the C-H and N-H bonds. As a consequence, that macrocyclic ring lost its planarity. Conclusions: SMF even of the lowest, 0.1 AMFU flux density influences the biological role of metalloporphyrines associated with their central metal atoms. This effect is generated by changes in the electron density at these atoms, its steric hindering and polarization of particular bonds from pure valence bonds possibly into ionic bonds.
Potential静电磁场对生物体的影响所造成的风险。静态磁场对金属卟啉影响的数值模拟
背景:试图识别不同通量密度的静磁场(SMF)对动植物的影响。。为此,研究了静磁场对Mg(II)、Fe(II),Fe(III)、Co(II)和Co(III)金属卟啉分子的影响。方法:采用先进的计算方法,在计算机真空中计算了实际SMF 0.0、0.1、1、10和100AFU(任意磁场单位;此处为1AMFU>1000T)通量密度的影响。结果:静磁场降低了金属卟啉分子的稳定性。这种效应取决于分子相对于笛卡尔系统SMF方向的情况。形成热值的增加伴随着偶极矩的增加。这是分子变形的影响,涉及将氢原子保持在环氮原子上的吡咯环以及C-H和N-H键的长度。结果,这个大环失去了平面性。结论:即使在最低的0.1 AMFU通量密度下,SMF也会影响与其中心金属原子相关的金属卟啉的生物学作用。这种效应是由这些原子处电子密度的变化、其空间阻碍和特定键从纯价键极化为离子键而产生的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
BioRisk
BioRisk Environmental Science-Environmental Science (miscellaneous)
CiteScore
1.40
自引率
0.00%
发文量
44
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