论文标题
低功率非电离辐射的生物学效应:叙事评论
Biological effects of low power nonionizing radiation: A Narrative Review
论文作者
论文摘要
生物细胞和组织上的背景和受控电磁辐射(EMR)会诱导热,非热和介电性能变化。 EMR与细胞/组织相互作用后,所得信号用于成像,生物分子反应和红外状态下的光量调节研究以及用于治疗的使用。我们试图对当前文献进行综述,重点是对每个制度的已发表实验结果进行汇编。微波炉(极低的频率,ELF至3 GHz),到细胞通信频率(100 kHz至300 GHz),毫米波(300 GHz-1 THz)和Infra-RED带,最高为461 THz。介绍了频率效应的独特图形表示及其在检测直接生物学效应,治疗应用和生物物理解释方面的相关意义。共有同行评审期刊的70篇研究论文被用来编译有用信息的混合,所有这些都以叙事方式呈现。在本文使用的杂志文章中,在2000年至2020年之间发表了63篇文章。本文的相关部分都解释了EMR的热,非热和复杂介电作用的物理,生物和治疗机制。准备了EMR范围KHz-NIR(KHZ-NIR(Kilohertz tearra-Red))的广泛最新审查。已发表的报告表明,生物细胞辐照研究的数量迅速降低了几个THZ EMR,导致涵盖大多数热效应和微热效应以及旋转振动效应的FIR和NIR带中相对较少的研究。
Background and controlled electromagnetic radiation (EMR) on biological cells and tissues induces thermal, non-thermal, and dielectric property change. After EMR interaction with cells/tissues the resulting signal is used for imaging, bio-molecular response, and photo-biomodulation studies at infrared regime, and for therapeutic use. We attempt to present a review of current literature with a focus to present compilation of published experimental results for each regime viz. microwave (extremely low frequency, ELF to 3 GHz), to cellular communication frequencies (100 KHz to 300 GHz), millimeter wave (300 GHz- 1 THz), and the infra-red band extending up to 461 THz. A unique graphical representation of frequency effects and their relevant significance in detection of direct biological effects, therapeutic applications and biophysical interpretation is presented. A total of seventy research papers from peer-reviewed journals were used to compile a mixture of useful information, all presented in a narrative style. Out of the Journal articles used for this paper, 63 journal articles were published between 2000 to 2020. Physical, biological, and therapeutic mechanisms of thermal, non-thermal and complex dielectric effects of EMR on cells are all explained in relevant sections of this paper. A broad up to date review for the EMR range KHz-NIR (kilohertz to near infra-red) is prepared. Published reports indicate that number of biological cell irradiation impact studies fall off rapidly beyond a few THz EMR, leading to relatively a smaller number of studies in FIR and NIR bands covering most of the thermal effects and microthermal effects, and rotation-vibration effects.