Department of Pharmacology and Toxicology and Central Laboratory, College of Pharmacy, King Saud University, Riyadh, Saudi Arabia.
Department of Biotechnology, Delhi Technological University, New Delhi, India.
PeerJ. 2024 Sep 30;12:e17807. doi: 10.7717/peerj.17807. eCollection 2024.
In recent years, advances in nanotechnology have significantly influenced electronics manufacturing, industrial processes, and medical research. Various industries have seen a surge in the use of nanomaterials. However, several researchers have raised the alarm about the toxicological nature of nanomaterials, which appear to be quite different from their crude forms. This altered nature can be attributed to their unique physicochemical profile. They can adversely affect human health and the environment. Nanomaterials that have been released into the environment tend to accumulate over time and can cause a significant impact on the ecosystem and organisms with adverse health effects. Increased use of nanoparticles has led to increased human exposure in their daily lives, making them more vulnerable to nanoparticle toxicity. Because of their small size, nanomaterials can readily cross biological membranes and enter cells, tissues, and organs. Therefore, the effect of nanomaterials on the human environment is of particular concern. The toxicological effects of nanomaterials and their mechanisms of action are being researched worldwide. Technological advances also support monitoring new nanomaterials marketed for industrial and household purposes. It is a challenging area because of the exceptional physicochemical properties of nanomaterials. This updated review focuses on the diverse toxicological perspective of nanomaterials. We have discussed the use of different types of nanoparticles and their physiochemical properties responsible for toxicity, routes of exposure, bio-distribution, and mechanism of toxicity. The review also includes various and methods of assessing the toxicity of nanomaterials. Finally, this review will provide a detailed insight into nano material-induced toxicological response, which can be beneficial in designing safe and effective nanoparticles.
近年来,纳米技术的进步极大地影响了电子制造、工业过程和医学研究。各个行业都在大量使用纳米材料。然而,一些研究人员对纳米材料的毒理学性质发出了警报,这些性质似乎与它们的原始形式有很大的不同。这种变化的性质可以归因于它们独特的物理化学特性。它们可能会对人类健康和环境造成不良影响。已经释放到环境中的纳米材料往往会随着时间的推移而积累,并可能对生态系统和生物体造成重大影响,导致不良的健康影响。纳米颗粒的使用增加导致人类在日常生活中暴露于纳米颗粒的风险增加,使他们更容易受到纳米颗粒毒性的影响。由于纳米材料的体积小,它们可以轻易穿过生物膜并进入细胞、组织和器官。因此,纳米材料对人类环境的影响尤其令人关注。纳米材料的毒理学效应及其作用机制正在全球范围内进行研究。技术进步也支持监测用于工业和家庭用途的新型纳米材料。这是一个具有挑战性的领域,因为纳米材料具有特殊的物理化学性质。本综述重点关注纳米材料的不同毒理学观点。我们讨论了不同类型的纳米颗粒及其导致毒性的物理化学特性、暴露途径、生物分布和毒性机制。综述还包括各种评估纳米材料毒性的方法。最后,本综述将深入探讨纳米材料诱导的毒理学反应,这对于设计安全有效的纳米颗粒可能是有益的。
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