Basu Shatabdi, Biswas Pragnya, Anto Mariya, Singh Nandini, Mukherjee Koel
Amity Institute of Biotechnology, Amity University, Kolkata, West Bengal 700135 India.
Department of Bioengineering and Biotechnology, Birla Institute of Technology, Mesra, Ranchi, Jharkhand 835215 India.
3 Biotech. 2024 Dec;14(12):289. doi: 10.1007/s13205-024-04135-y. Epub 2024 Nov 4.
Over the years, nanotechnology has gained popularity as a viable solution to address gene and drug delivery challenges over conventional methods. Extensive research has been conducted on nanosystems that consist of organic/inorganic materials, drugs, and its biocompatibility become the primary goal of improving drug delivery. Various surface modification methods help focus targeted and controlled drug release, further enabling multidrug delivery also. This newer technology ensures the stability of drugs that can unravel the mechanisms involved in cellular processes of disease development and its management. Tailored medication delivery provides benefits such as therapy, controlled release, and reduced adverse effects, which are especially important for controlling illnesses like cancer. However, multifunctional nanocarriers that possess high viscoelasticity, extended circulation half-life, biocompatibility, and biodegradability face some challenges and limitations too in human bodies. To produce a consistent therapeutic platform based on complex three-dimensional nanoparticles, careful design and engineering, thorough orthogonal analysis methods, and reproducible scale-up and manufacturing processes will be required in the future. Safety and effectiveness of nano-based drug delivery should be thoroughly investigated in preclinical and clinical trials, especially when considering biodistribution, targeting specific areas, and potential immunological toxicities. Overall, the current review article explores the advancements in nanotechnology, specific to nanomaterial-enabled drug delivery systems, carrier fabrication techniques and modifications, disease management, clinical research, applications, limitations, and future challenges. The work portrays how nanomedicine distribution affects healthcare with an emphasis on the developments in drug delivery techniques.
多年来,纳米技术作为一种可行的解决方案,相较于传统方法,在应对基因和药物递送挑战方面越来越受到关注。针对由有机/无机材料、药物组成的纳米系统开展了广泛研究,其生物相容性成为改善药物递送的主要目标。各种表面修饰方法有助于实现靶向和可控药物释放,还能进一步实现多药递送。这项新技术确保了药物的稳定性,有助于揭示疾病发生和治疗过程中涉及的细胞机制。定制化药物递送具有治疗、控释和减少副作用等益处,这对于控制癌症等疾病尤为重要。然而,具有高粘弹性、延长循环半衰期、生物相容性和生物可降解性的多功能纳米载体在人体中也面临一些挑战和限制。未来,要基于复杂的三维纳米颗粒构建一个稳定的治疗平台,需要精心设计与工程化、全面的正交分析方法以及可重复放大的生产工艺。基于纳米的药物递送的安全性和有效性应在临床前和临床试验中进行深入研究,尤其是在考虑生物分布、靶向特定区域以及潜在的免疫毒性时。总体而言,当前这篇综述文章探讨了纳米技术的进展,特别是基于纳米材料的药物递送系统、载体制造技术与修饰、疾病管理、临床研究、应用、局限性以及未来挑战。该文章阐述了纳米医学的分布如何影响医疗保健,并着重介绍了药物递送技术的发展。