Gibb Bryan, Hyman Paul, Schneider Christine L
Department of Biological and Chemical Sciences, Theobald Science Center, Room 423, New York Institute of Technology, Old Westbury, NY 11568-8000, USA.
Department of Biology and Toxicology, Ashland University, 401 College Ave., Ashland, OH 44805, USA.
Pharmaceuticals (Basel). 2021 Jun 30;14(7):634. doi: 10.3390/ph14070634.
Since their independent discovery by Frederick Twort in 1915 and Felix d'Herelle in 1917, bacteriophages have captured the attention of scientists for more than a century. They are the most abundant organisms on the planet, often outnumbering their bacterial hosts by tenfold in a given environment, and they constitute a vast reservoir of unexplored genetic information. The increased prevalence of antibiotic resistant pathogens has renewed interest in the use of naturally obtained phages to combat bacterial infections, aka phage therapy. The development of tools to modify phages, genetically or chemically, combined with their structural flexibility, cargo capacity, ease of propagation, and overall safety in humans has opened the door to a myriad of applications. This review article will introduce readers to many of the varied and ingenious ways in which researchers are modifying phages to move them well beyond their innate ability to target and kill bacteria.
自1915年弗雷德里克·特沃特和1917年费利克斯·德赫雷尔独立发现噬菌体以来,它们已吸引科学家们的关注达一个多世纪之久。噬菌体是地球上数量最多的生物体,在特定环境中,其数量通常比它们的细菌宿主多出十倍,并且它们构成了一个庞大的未被探索的基因信息库。抗生素耐药病原体的日益流行,使人们重新对使用天然获得的噬菌体来对抗细菌感染(即噬菌体疗法)产生了兴趣。通过基因或化学方法修饰噬菌体的工具的开发,再加上它们的结构灵活性、运载能力、易于繁殖以及对人类的总体安全性,为众多应用打开了大门。这篇综述文章将向读者介绍研究人员修饰噬菌体的多种巧妙方法,这些方法使噬菌体远远超越了其固有的靶向和杀死细菌的能力。