International Center for Research on Innovative Biobased Materials (ICRI-BioM)-International Research Agenda, Lodz University of Technology, Zeromskiego 116, 90-924 Lodz, Poland.
Department of Botany and Microbiology, Faculty of Science, Alexandria University, Alexandria 21521, Egypt.
Int J Mol Sci. 2022 Apr 7;23(8):4101. doi: 10.3390/ijms23084101.
Despite the recent advancements in treating bacterial infections, antibiotic resistance (AR) is still an emerging issue. However, polymeric nanocarriers have offered unconventional solutions owing to their capability of exposing more functional groups, high encapsulation efficiency (EE) and having sustained delivery. Natural polymeric nanomaterials (NMs) are contemplated one of the most powerful strategies in drug delivery (DD) in terms of their safety, biodegradability with almost no side effects. Every nanostructure is tailored to enhance the system functionality. For example, cost-effective copper NPs could be generated in situ in cellulose sheets, demonstrating powerful antibacterial prospects for food safety sector. Dendrimers also have the capacity for peptide encapsulation, protecting them from proteolytic digestion for prolonged half life span. On the other hand, the demerits of naturally sourced polymers still stand against their capacities in DD. Hence, Post-synthetic modification of natural polymers could play a provital role in yielding new hybrids while retaining their biodegradability, which could be suitable for building novel super structures for DD platforms. This is the first review presenting the contribution of natural polymers in the fabrication of eight polymeric NMs including particulate nanodelivery and nanofabrics with antibacterial and antibiofilm prospects, referring to modified polymer derivatives to explore their full potential for obtaining sustainable DD products.
尽管最近在治疗细菌感染方面取得了进展,但抗生素耐药性(AR)仍然是一个新出现的问题。然而,由于聚合物纳米载体能够暴露更多的功能基团、具有较高的包封效率(EE)和具有持续的释放能力,因此提供了非传统的解决方案。天然聚合物纳米材料(NMs)被认为是药物输送(DD)方面最强大的策略之一,因为它们具有安全性、生物可降解性和几乎没有副作用。每种纳米结构都经过精心设计,以增强系统功能。例如,可以在纤维素片中原位生成具有成本效益的铜纳米颗粒,为食品安全领域展示出强大的抗菌前景。树状大分子也具有肽封装的能力,可保护它们免受蛋白水解消化,从而延长半衰期。另一方面,天然聚合物的缺点仍然限制了它们在 DD 中的应用。因此,对天然聚合物进行后期合成修饰可以在保留其生物降解性的同时产生新的杂化材料,这可能适合用于构建用于 DD 平台的新型超结构。这是第一篇综述,介绍了天然聚合物在制造八种聚合物纳米材料中的贡献,包括具有抗菌和抗生物膜前景的颗粒纳米递药和纳米纤维,涉及到对聚合物衍生物的修饰,以探索它们在获得可持续 DD 产品方面的全部潜力。