Mouches C, Taylor-Robinson D, Stipkovits L, Bove J M
Ann Microbiol (Paris). 1981 Sep-Oct;132B(2):171-96.
The proteins of twelve serologically distinct ureaplasma strains of human origin, eleven of bovine origin and seven from other animal species were examined by one-dimensional polyacrylamide gel electrophoresis and by two-dimensional analysis. About 40 bands were seen in the protein profiles and more than 100 spots were detected on the protein maps. The human ureaplasmas differentiated into two distinct groups: group A comprised serotypes 2, 4, 5, 7 and 8 (of Black), serotype 9 (of Robertson and Stemke) and strains K2 and U24 (of Lin and Kass); group B comprised serotypes 1, 3 and 6 (of Black) and strain U26 (of Lin and Kass). The bovine strains were subdivided into three groups: group A was formed by a cluster of related strains (Mmb167, Bu2, A417, T45, T95 and T288) which could be further divided into three sub-groups; group B comprised strains T74 and T44 and group C, strains T315, T71 and D48. These findings were consistent with the known serological clusterings. The bovine ureaplasma strains were distinct from the human strains. This, in addition to the known difference in the G + C content of human and bovine ureaplasmas, indicates that it would be reasonable to formulate a species name for the latter. Ureaplasmas from other animal species could be allotted to five groups which corresponded to the animal species of origin. The marmoset ureaplasmas were different from those of the squirrel-monkey, and both were different from all other ureaplasmas. On the other hand, the ureaplasmas from the talapoin monkey, chicken and chimpanzee formed a cluster which seemed related to human ureaplasmas of group A, the chimpanzee ureaplasma being the most closely related.
采用一维聚丙烯酰胺凝胶电泳和二维分析方法,对来源于人的12种血清学不同的脲原体菌株、11种来源于牛的菌株以及7种来源于其他动物物种的菌株的蛋白质进行了检测。在蛋白质图谱中可见约40条带,在蛋白质图谱上检测到100多个斑点。人脲原体分为两个不同的组:A组包括(布莱克分型的)血清型2、4、5、7和8、(罗伯逊和施特姆克分型的)血清型9以及(林和卡斯分型的)K2和U24菌株;B组包括(布莱克分型的)血清型1、3和6以及(林和卡斯分型的)U26菌株。牛源菌株分为三组:A组由一组相关菌株(Mmb167、Bu2、A417、T45、T95和T288)组成,该组可进一步分为三个亚组;B组包括T74和T44菌株,C组包括T315、T71和D48菌株。这些发现与已知的血清学聚类结果一致。牛脲原体菌株与人源菌株不同。这一点,再加上已知的人源和牛源脲原体在G + C含量上的差异,表明为后者制定一个物种名称是合理的。来自其他动物物种的脲原体可分为五组,这与它们的动物源物种相对应。狨猴脲原体与松鼠猴的不同,两者均与所有其他脲原体不同。另一方面,来自长尾猴、鸡和黑猩猩的脲原体形成了一个聚类,似乎与A组人脲原体相关,其中黑猩猩脲原体关系最为密切。