Silver Nanoparticles' Therapeutic Antibacterial, Antiproliferative, and Toxicological Effects.

Safa Al-alwani, Aseel Almashaleh
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Abstract

Silver nanoparticles, among others, have broad-spectrum antimicrobial properties. Silver nanoparticles have suppressed dangerous microorganisms in medical and agricultural settings in several studies. Chemicals are harmful to humans and the environment, raising awareness of bioactive synthetic methods. These methods produce nanoparticles with better physicochemical qualities, stability, and toxicity. Biogenic nanoparticles can be made from bacterial and fungal byproducts that reduce and stabilize. Encapsulating these nanoparticles with biomolecules from the producing organisms may boost stability and biological activity. Nanoparticles' quick, clean, cheap, and ecological biologic manufacturing technique increases biocompatibility. Silver nanoparticles affect fish, algae, cell-based in vitro procedures, and microbes. Even though most of these studies were done quickly in well-regulated labs with much higher silver ion concentrations than in real life. Many silver types undergo long-term chemical transformation at extremely low levels (ng/L to g/L) in aquatic ecosystems. Thus, silver nanoparticles' environmental and health hazards need additional investigation. Recently detected antimicrobial silver at 10102 μg/mL. Multiple processes make silver nanoparticles dangerous. Basic (Ag0) and monovalent (Ag+) silver are most poisonous. Silver framework free ions affect silver toxicity. ROS damage DNA when elemental or zero-valent silver penetrates tissues. Packaged foods, contaminated water, swimming pools, antifouling, nasal and throat medicines, and other pharmaceuticals include silver nanoparticles. Consumption accumulates silver ions in subcutaneous fat. Prolonged exposure causes argyria-blue-gray skin. Silver inhibits Na+ and Cl absorption, disrupting electrolytes. Airborne silver nanoparticles may influence chronic pulmonary disease patients. Silver ions oxidize enzyme thiols, hindering electron transport and DNA replication. Ag+ rapidly damages DNA and RNA. Silver nanoparticle breakdown into silver ions creates germ-killing ROS. Silver nanoparticles are more hazardous than silver ions in the same atmosphere.
纳米银的治疗性抗菌、抗增殖和毒理学作用。
其中,银纳米颗粒具有广谱抗菌特性。在一些研究中,银纳米颗粒抑制了医疗和农业环境中的危险微生物。化学品对人类和环境有害,这提高了人们对生物活性合成方法的认识。这些方法产生的纳米粒子具有更好的物理化学性质、稳定性和毒性。生物纳米颗粒可以由细菌和真菌的副产品,减少和稳定。将这些纳米颗粒包裹在产生生物的生物分子中可以提高稳定性和生物活性。纳米颗粒快速、清洁、廉价、生态的生物制造技术提高了生物相容性。银纳米颗粒影响鱼类、藻类、基于细胞的体外程序和微生物。尽管这些研究大多是在监管良好的实验室里快速完成的,银离子浓度比现实生活中要高得多。在水生生态系统中,许多银类型在极低水平(ng/L到g/L)下进行长期化学转化。因此,银纳米颗粒对环境和健康的危害需要进一步的研究。近期检测抗菌银10102 μg/mL。多重过程使得银纳米粒子变得危险。碱性银(Ag0)和单价银(Ag+)毒性最大。银骨架游离离子影响银毒性。当元素银或零价银进入组织时,ROS会损伤DNA。包装食品、受污染的水、游泳池、防污剂、鼻咽药和其他药物都含有纳米银颗粒。银离子在皮下脂肪中积聚。长时间接触会导致银灰色皮肤。银抑制Na+和Cl的吸收,破坏电解质。空气中的银纳米颗粒可能影响慢性肺病患者。银离子氧化酶硫醇,阻碍电子传递和DNA复制。银离子迅速破坏DNA和RNA。银纳米粒子分解成银离子产生杀菌活性氧。在相同的大气中,银纳米粒子比银离子更危险。
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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