Mayegowda Shilpa Borehalli, Gadilingappa Manjula Nagalapur
School of Psychological Sciences, CHRIST University, Kengeri Campus, Bengaluru, Karnataka, India.
School of Basic and Applied Sciences, Dayananda Sagar University, Bengaluru, Karnataka, India.
BME Front. 2025 Mar 21;6:0112. doi: 10.34133/bmef.0112. eCollection 2025.
Globally, increased illness and disorders have gained importance in improvising therapeutics to help extend the lifespan of an individual. In this scenario, understanding the mechanism of bacterial pathogenicity linked to the interaction between the host and the pathogen focusing on essential metal ions is necessary. Numerous studies indicate that the severity of a disease might be due to the reduced availability of iron, linked to abnormal production or lack of acquisition systems. However, several microbes produce siderophores as virulence factors, low-molecular-weight organic compounds for acquisition of iron by iron-chelating systems. In medical applications, siderophores are employed in novel strategies in order to design effective new drugs and vaccines, targeting and delivering antibiotics to target sites in multidrug-resistant pathogens. Meanwhile, some types of siderophores are used as drug delivery modalities and antimalarial, anticancer, and antibacterial agents, for example, by employing conjugation techniques such as Trojan horse delivery. Hence, the current review integrates several applications of siderophores with an overview covering taxonomy, organisms producing iron affinity carriers, and their acquisition mechanism. This understanding may delineate newer opportunities to adapt possible therapies and/or treatments against several multidrug-resistant pathogens, representing a crucial solution for public health problems worldwide.
在全球范围内,疾病和功能紊乱的增加在改进治疗方法以延长个体寿命方面变得愈发重要。在这种情况下,了解与宿主和病原体之间相互作用相关的细菌致病性机制,重点关注必需金属离子,是很有必要的。大量研究表明,疾病的严重程度可能归因于铁的可用性降低,这与异常产生或缺乏获取系统有关。然而,一些微生物会产生铁载体作为毒力因子,即通过铁螯合系统获取铁的低分子量有机化合物。在医学应用中,铁载体被用于新的策略中,以设计有效的新药和疫苗,将抗生素靶向递送至多重耐药病原体的靶点部位。同时,某些类型的铁载体被用作药物递送方式以及抗疟疾、抗癌和抗菌剂,例如通过采用如特洛伊木马递送等偶联技术。因此,本综述整合了铁载体的多种应用,并概述了其分类学、产生铁亲和载体的生物体及其获取机制。这种认识可能会为针对几种多重耐药病原体采用可能的治疗方法和/或疗法描绘出新的机会,这是解决全球公共卫生问题的关键方案。