Hani Umme, Choudhary Vikram T, Ghazwani Mohammed, Alghazwani Yahia, Osmani Riyaz Ali M, Kulkarni Gururaj S, Shivakumar Hosakote G, Wani Shahid Ud Din, Paranthaman Sathishbabu
Department of Pharmaceutics, College of Pharmacy, King Khalid University, Abha 61421, Saudi Arabia.
Department of Pharmaceutics, The Oxford College of Pharmacy, Hongsandra, Bengaluru 560068, India.
Pharmaceutics. 2024 Nov 27;16(12):1527. doi: 10.3390/pharmaceutics16121527.
Cancer, the most common condition worldwide, ranks second in terms of the number of human deaths, surpassing cardiovascular diseases. Uncontrolled cell multiplication and resistance to cell death are the traditional features of cancer. The myriad of treatment options include surgery, chemotherapy, radiotherapy, and immunotherapy to treat this disease. Conventional chemotherapy drug delivery suffers from issues such as the risk of damage to benign cells, which can cause toxicity, and a few tumor cells withstand apoptosis, thereby increasing the likelihood of developing tolerance. The side effects of cancer chemotherapy are often more pronounced than its benefits. Regarding drugs used in cancer chemotherapy, their bioavailability and stability in the tumor microenvironment are the most important issues that need immediate addressing. Hence, an effective and reliable drug delivery system through which both rapid and precise targeting of treatment can be achieved is urgently needed. In this work, we discuss the development of various nanobased carriers in the advancement of cancer therapy-their properties, the potential of polymers for drug delivery, and recent advances in formulations. Additionally, we discuss the use of tumor metabolism-rewriting nanomedicines in strengthening antitumor immune responses and mRNA-based nanotherapeutics in inhibiting tumor progression. We also examine several issues, such as nanotoxicological studies, including their distribution, pharmacokinetics, and toxicology. Although significant attention is being given to nanotechnology, equal attention is needed in laboratories that produce nanomedicines so that they can record themselves in clinical trials. Furthermore, these medicines in clinical trials display overwhelming results with reduced side effects, as well as their ability to modify the dose of the drug.
癌症是全球最常见的疾病,在人类死亡数量方面仅次于心血管疾病,位居第二。不受控制的细胞增殖和对细胞死亡的抗性是癌症的传统特征。治疗这种疾病的众多选择包括手术、化疗、放疗和免疫疗法。传统的化疗药物递送存在一些问题,例如对良性细胞造成损害的风险,这可能导致毒性,并且一些肿瘤细胞能够抵抗细胞凋亡,从而增加产生耐受性的可能性。癌症化疗的副作用往往比其益处更为明显。关于用于癌症化疗的药物,它们在肿瘤微环境中的生物利用度和稳定性是需要立即解决的最重要问题。因此,迫切需要一种有效且可靠的药物递送系统,通过该系统可以实现快速且精确的靶向治疗。在这项工作中,我们讨论了各种基于纳米的载体在癌症治疗进展中的发展——它们的特性、用于药物递送的聚合物的潜力以及制剂的最新进展。此外,我们讨论了利用重编程肿瘤代谢的纳米药物来增强抗肿瘤免疫反应以及基于mRNA的纳米疗法来抑制肿瘤进展。我们还研究了几个问题,例如纳米毒理学研究,包括它们的分布、药代动力学和毒理学。尽管纳米技术受到了极大关注,但生产纳米药物的实验室也需要给予同等关注,以便它们能够在临床试验中有所记录。此外,这些在临床试验中的药物显示出压倒性的结果,副作用减少,并且具有调整药物剂量的能力。