Living Bacteriophage Engineering for Functional Material Synthesis, Bioanalytical Sensing and Disease Theranostics

TARGETS Pub Date : 2024-07-08 DOI:10.3390/targets2030010
Jing Zhang, Xuewen He
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Abstract

Facing the increasingly global crisis of antibiotic resistance, it is urgent to develop new antibacterial agents and methods. Simultaneously, as research progresses, the occurrence, development, and treatment of diseases, especially some malignant cancers, are found to be closely associated with the bacterial microenvironment, prompting us to reconsider the efficiency of existing antibacterial strategies for disease treatments. Bacteriophages have been employed as antibacterial agents for an extended period owing to their high biocompatibility and particular targetability toward the host bacterial strains. Nonetheless, they are almost neglected due to their slow and limited efficacy in antibacterial practice, especially in acute and severe infectious cases. In recent years, fantastic advancements in various biochemical technologies, such as bacteriophage display technology, genetic engineering, and chemical molecular engineering, have enabled scientists to conduct a broader range of modifications and transformations on the existing bacteriophages with inherited unique characteristics of themselves. As a result, a series of novel bacteriophage platforms are designed and fabricated with significantly enhanced properties and multiplied functionalities. These offer new avenues for combating infections caused by drug-resistant bacteria and treatment of malignancies that are associated with bacterial infections, holding great significance and potential in the innovative theranostic applications.
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噬菌体活体工程用于功能材料合成、生物分析传感和疾病疗法
面对全球日益严重的抗生素耐药性危机,开发新的抗菌药物和方法迫在眉睫。与此同时,随着研究的深入,人们发现疾病尤其是一些恶性癌症的发生、发展和治疗与细菌微环境密切相关,这促使我们重新考虑现有抗菌策略在疾病治疗中的有效性。由于噬菌体具有很高的生物相容性和对宿主细菌菌株的特殊靶向性,它们长期以来一直被用作抗菌剂。然而,由于噬菌体在抗菌实践中,尤其是在急性和严重感染病例中的疗效缓慢而有限,它们几乎被忽视。近年来,噬菌体展示技术、基因工程和化学分子工程等各种生化技术取得了突飞猛进的发展,使科学家们能够对现有的噬菌体进行更广泛的改造和转化,使其继承自身的独特特性。因此,一系列新型噬菌体平台被设计和制造出来,其特性和功能显著增强。这为抗击耐药细菌引起的感染和治疗与细菌感染相关的恶性肿瘤提供了新途径,在创新治疗学应用方面具有重大意义和潜力。
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