Srinivash Moovendran, Krishnamoorthi Raman, Mahalingam Pambayan Ulagan, Malaikozhundan Balasubramanian, Bharathakumar Subramanian, Gurushankar Krishnamoorthy, Dhanapal K, Karuppa Samy Kasi, Babu Perumal Anand
Department of Biology, The Gandhigram Rural Institute (Deemed to be University), Gandhigram-624302, Dindigul, Tamil Nadu, India.
Indian Cardamom Research Institute, Spices Board (Ministry of Commerce and Industry, Government of India), Myladumpara-685553, Idukki, Kerala, India.
Inorg Chem Commun. 2023 Jun;152:110682. doi: 10.1016/j.inoche.2023.110682. Epub 2023 Apr 3.
Multidrug resistant (MDR) pathogens have become a major global health challenge and have severely threatened the health of society. Current conditions have become worse as a result of the COVID-19 pandemic, and infection rates in the future will rise. It is necessary to design, respond effectively, and take action to address these challenges by investigating new avenues. In this regard, the fabrication of metal NPs utilized by various methods, including green synthesis using mushroom, is highly versatile, cost-effective, eco-compatible, and superior. In contrast, biofabrication of metal NPs can be employed as a powerful weapon against MDR pathogens and have immense biomedical applications. In addition, the advancement in nanotechnology has made possible to modify the nanomaterials and enhance their activities. Metal NPs with biomolecules composite prevent the microbial adhesion and kills the microbial pathogens through biofilm formation. Bacteriocin is an excellent antimicrobial peptide that works well as an augmentation substance to boost the antimicrobial effects. As a result, we concentrate on the creation of new, eco-compatible mycosynthesized metal NPs with bacteriocin nanocomposite via electrostatic, covalent, or non-covalent bindings. The synergistic benefits of metal NPs with bacteriocin to combat MDR pathogens and COVID-19, as well as other biomedical applications, are discussed in this review. Moreover, the importance of the adverse outcome pathway (AOP) in risk analysis of manufactured metal nanocomposite nanomaterial and their future possibilities were also discussed.
多重耐药(MDR)病原体已成为全球主要的健康挑战,并严重威胁着社会健康。由于新冠疫情,当前情况变得更糟,未来感染率还会上升。有必要通过探索新途径来设计、有效应对并采取行动应对这些挑战。在这方面,通过各种方法制备金属纳米颗粒,包括利用蘑菇进行绿色合成,具有高度的通用性、成本效益、生态兼容性且性能优越。相比之下,金属纳米颗粒的生物制造可作为对抗MDR病原体的有力武器,并具有巨大的生物医学应用价值。此外,纳米技术的进步使得对纳米材料进行改性并增强其活性成为可能。具有生物分子复合物的金属纳米颗粒可防止微生物粘附,并通过生物膜形成杀死微生物病原体。细菌素是一种出色的抗菌肽,作为增强抗菌效果的增强物质效果良好。因此,我们专注于通过静电、共价或非共价结合创建新型的、生态兼容的、与细菌素纳米复合的真菌合成金属纳米颗粒。本文综述了金属纳米颗粒与细菌素协同对抗MDR病原体和新冠病毒以及其他生物医学应用的益处。此外,还讨论了不良结局途径(AOP)在人造金属纳米复合纳米材料风险分析中的重要性及其未来可能性。