Shobhaben Pratapbhai Patel School of Pharmacy and Technology Management, SVKM'S NMIMS, V. L. Mehta Road, Vile Parle (W), Mumbai, India.
Shobhaben Pratapbhai Patel School of Pharmacy and Technology Management, SVKM'S NMIMS, V. L. Mehta Road, Vile Parle (W), Mumbai, India.
Mater Sci Eng C Mater Biol Appl. 2020 Dec;117:111330. doi: 10.1016/j.msec.2020.111330. Epub 2020 Aug 7.
Nanomotors, multimetallic systems are biologically inspired self-propelled tiny engines able to perform difficult tasks of transporting cargos from one end to another in presence of hydrogen peroxide fuel. Nanomotors can revolutionize the drug delivery system at the desired target by converting chemical energy into mechanical energy. Nanomotors exhibit unique properties like moving at higher speed, self-propulsion and drilling into the complex cellular environment. The review focuses on fuel dependent and fuel-free nanomotors with their propulsion mechanism. Further, the review highlights the method of fabrication, biohybrid nanomotors, toxicities along with their application in the field of active drug delivery, diabetes, precise surgery, ischemic stroke therapy, diagnosis and treatment of coronavirus, microwave hyperthermia, zika virus detection, anti-bacterial activity, water treatment and sensing and challenges lying at the forefront in the development of these tiny nanomachines. Hydrogen peroxide is toxic to mankind; biohybrid motors give an extra edge of eliminating hydrogen peroxide as fuel for self-propulsion, this can be used for smart drug delivery by reducing toxicities as compared to artificial nanomotors. Cost-effective fabrication of nanomotors will extend their applications in commercial sector overcoming limitations like scale-up and regulatory approval. In near future, nanomotors will diversify in fields of restoring conductivity of electronic medical devices, 3D printing and theranostics.
纳米马达是受生物启发的自行推进的微型发动机,能够在过氧化氢燃料存在的情况下将货物从一端运送到另一端,完成困难的任务。纳米马达可以将化学能转化为机械能,从而彻底改变药物输送系统在所需目标的作用。纳米马达具有独特的性质,例如以更高的速度移动、自行推进和钻入复杂的细胞环境。本综述重点介绍了依赖燃料和无燃料的纳米马达及其推进机制。此外,本综述还强调了制造方法、生物混合纳米马达、毒性以及它们在主动药物输送、糖尿病、精确手术、缺血性中风治疗、冠状病毒诊断和治疗、微波热疗、寨卡病毒检测、抗菌活性、水处理和传感等领域的应用,以及这些微型纳米机器开发中面临的前沿挑战。过氧化氢对人类有毒;生物混合马达为消除过氧化氢作为自推进燃料提供了额外的优势,与人工纳米马达相比,这可以用于智能药物输送,从而降低毒性。纳米马达的经济高效制造将扩大它们在商业领域的应用,克服扩大规模和监管批准等限制。在不久的将来,纳米马达将在恢复电子医疗设备导电性、3D 打印和治疗诊断等领域多样化发展。