Hooda Neeti, Ahlawat Aarti, Kumari Puja, Alam Sabir, Ansari Jamilur R
Department of Chemistry, P.D.M. University, Bahadurgarh, Haryana, 124001, India.
GT College of Pharmacy, SGT University, Gurgaon-Badli Road Chandu, Budhera, Gurugram, Haryana, 122505, India.
Pharm Nanotechnol. 2023 Nov 28. doi: 10.2174/0122117385267911231109184511.
Nanotechnology has advanced significantly in recent years and is currently used in a wide range of sectors. Only a handful of the many diverse issues covered by nanotechnology include nanoscale gadgets, nanomaterials, nanoparticles, and nanomedicines. Its performance in treating a range of grave conditions, such as cancer, early detection of infections, analysis, bio-imaging, and bio sensing, suggests that it is highly advanced. Nanoscale materials have been employed for medicine delivery, pharmaceutics, and a range of diagnostic techniques due to their various biochemical and physical features. The use of nanoparticles that are based on nanotechnology can significantly improve the drug delivery mechanism. It is believed that nanoparticles capacity to improve the stability and solubility of drugs and shield them from impulsive inactivation during drug transfer makes it possible for them to capture, encapsulate, or bond with the molecules. The use of nanomedicine or nanoparticle-based tactics to combat viruses has emerged as a potentially life-saving tactic. These approaches have the power to protect both humans and animals against viruses. In order to inactivate a virus, nanoparticles have the unique capacity to connect with the virus epitope. Many nanocarriers have the potential to replace current drug delivery methods with focused drug delivery. Small dosages, low toxicity, and targeted flow of drug release at the infected location are all characteristics of nanocarriers or nanomedicine. Due to their distinct physicochemical and biological features, nanomaterial-based drug delivery systems (NBDDS) are frequently employed to enhance the safety and therapeutic efficacy of encapsulated pharmaceuticals. The program's objective can be supported by the applications that have so far been developed. This idea is therefore essential and sophisticated for the development of civilization. Our research will therefore concentrate on how human use of nanomedicines has changed through time in many domains.
近年来,纳米技术取得了显著进展,目前已应用于广泛的领域。纳米技术涵盖的众多不同问题中,只有少数包括纳米级装置、纳米材料、纳米颗粒和纳米药物。它在治疗一系列严重疾病,如癌症、感染的早期检测、分析、生物成像和生物传感方面的表现表明其高度先进。由于其各种生化和物理特性,纳米级材料已被用于药物递送、制药和一系列诊断技术。基于纳米技术的纳米颗粒的使用可以显著改善药物递送机制。据信,纳米颗粒提高药物稳定性和溶解性并在药物转移过程中保护它们免受脉冲失活的能力使其能够捕获、封装或与分子结合。使用纳米药物或基于纳米颗粒的策略来对抗病毒已成为一种潜在的救生策略。这些方法有能力保护人类和动物免受病毒侵害。为了使病毒失活,纳米颗粒具有与病毒表位结合的独特能力。许多纳米载体有可能用靶向药物递送取代当前的药物递送方法。小剂量、低毒性和在感染部位靶向释放药物是纳米载体或纳米药物的所有特征。由于其独特的物理化学和生物学特性,基于纳米材料的药物递送系统(NBDDS)经常被用于提高封装药物的安全性和治疗效果。迄今为止开发的应用可以支持该计划的目标。因此,这个想法对于文明的发展至关重要且复杂。因此,我们的研究将集中在人类在许多领域对纳米药物的使用如何随时间变化。