The Physical Effects of Plasma Medicine on Cells: Radio Frequency Stimulated Intercellular and Intracellular Mechanical Waves

L. Lin, V. Soni, X. Yao, D. Yan, M. Keidar
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Abstract

In the last decade of research works upon plasma medicine using cold atmospheric plasmas (CAP), reactive oxygen and nitrogen species (RONS) are believed to be the major role of these applications. This thus raises the indirect treatments that use the plasma-treated solutions or drugs rather than treat the targeting cells or tissues directly with CAP. However, the difference between direct and indirect treatments cannot be ignored. The indirect treatment does not include the electromagnetic (EM) radiation from CAP. The latter is thus named as the physical effects of plasma medicine. Due to the surface charge on the cell membrane, the membrane oscillation under the external electric field has been reported. In this work, we developed a Michelson laser interferometer system coupled with a high-speed ICCD camera and a radio frequency (RF) emission system to capture the cell membrane and the propagation of the resulting mechanical waves. The system can observe such an oscillation in 3D and real-time. In the further analysis, we will discuss the propagation of such an oscillation, mainly a transverse wave along the cell membrane from the center to its pseudopodia, and the wave in the extracellular medium. The corresponding cancer cell viability and sensitization to cancer medicines are also analyzed. The physical effects of species transportations on the cell membrane are thus suggested.
血浆药物对细胞的物理作用:射频刺激的细胞间和细胞内机械波
在近十年的低温大气等离子体(CAP)等离子体医学研究中,活性氧和活性氮(RONS)被认为是这些应用的主要作用。这就提出了使用等离子体处理过的溶液或药物而不是直接用CAP治疗靶向细胞或组织的间接治疗方法。然而,直接治疗和间接治疗之间的差异不容忽视。间接治疗不包括CAP的电磁辐射,因此后者被称为等离子体医学的物理效应。由于细胞膜表面电荷的作用,细胞膜在外加电场作用下产生振荡现象。在这项工作中,我们开发了一个迈克尔逊激光干涉仪系统,该系统与高速ICCD相机和射频(RF)发射系统相结合,以捕获细胞膜和由此产生的机械波的传播。该系统可以三维实时观测这种振荡。在进一步的分析中,我们将讨论这种振荡的传播,主要是沿细胞膜从中心到假脚的横波,以及在细胞外介质中的波。并分析了相应的肿瘤细胞活力和对肿瘤药物的敏感性。从而提出了物种运输对细胞膜的物理效应。
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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