Lagier Jean-Christophe, Edouard Sophie, Pagnier Isabelle, Mediannikov Oleg, Drancourt Michel, Raoult Didier
Aix Marseille Université, URMITE, UM63, CNRS 7278, IRD 198, INSERM 1095, Marseille, France.
Aix Marseille Université, URMITE, UM63, CNRS 7278, IRD 198, INSERM 1095, Marseille, France
Clin Microbiol Rev. 2015 Jan;28(1):208-36. doi: 10.1128/CMR.00110-14.
A pure bacterial culture remains essential for the study of its virulence, its antibiotic susceptibility, and its genome sequence in order to facilitate the understanding and treatment of caused diseases. The first culture conditions empirically varied incubation time, nutrients, atmosphere, and temperature; culture was then gradually abandoned in favor of molecular methods. The rebirth of culture in clinical microbiology was prompted by microbiologists specializing in intracellular bacteria. The shell vial procedure allowed the culture of new species of Rickettsia. The design of axenic media for growing fastidious bacteria such as Tropheryma whipplei and Coxiella burnetii and the ability of amoebal coculture to discover new bacteria constituted major advances. Strong efforts associating optimized culture media, detection methods, and a microaerophilic atmosphere allowed a dramatic decrease of the time of Mycobacterium tuberculosis culture. The use of a new versatile medium allowed an extension of the repertoire of archaea. Finally, to optimize the culture of anaerobes in routine bacteriology laboratories, the addition of antioxidants in culture media under an aerobic atmosphere allowed the growth of strictly anaerobic species. Nevertheless, among usual bacterial pathogens, the development of axenic media for the culture of Treponema pallidum or Mycobacterium leprae remains an important challenge that the patience and innovations of cultivators will enable them to overcome.
纯细菌培养物对于研究其毒力、抗生素敏感性及其基因组序列仍然至关重要,以便于理解和治疗所引发的疾病。最初的培养条件根据经验改变孵育时间、营养成分、培养环境和温度;随后培养方法逐渐被分子方法所取代。临床微生物学中培养方法的复兴是由专门研究细胞内细菌的微生物学家推动的。壳瓶培养法使得立克次体新物种得以培养。用于培养如惠普尔嗜组织细胞菌和伯纳特柯克斯体等苛求菌的无共生培养基的设计,以及变形虫共培养发现新细菌的能力构成了重大进展。通过将优化的培养基、检测方法和微需氧环境相结合的巨大努力,显著缩短了结核分枝杆菌的培养时间。使用一种新型通用培养基扩展了古菌的培养范围。最后,为了在常规细菌学实验室中优化厌氧菌培养,在有氧环境下的培养基中添加抗氧化剂使得严格厌氧菌得以生长。然而,在常见的细菌病原体中,开发用于培养梅毒螺旋体或麻风分枝杆菌的无共生培养基仍然是一项重大挑战,培养人员的耐心和创新将使他们能够克服这一挑战。