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使用定量氧化酶试验来表征细菌中的氧化代谢。

Use of a quantitative oxidase test for characterizing oxidative metabolism in bacteria.

作者信息

Jurtshuk P, McQuitty D N

出版信息

Appl Environ Microbiol. 1976 May;31(5):668-79. doi: 10.1128/aem.31.5.668-679.1976.

Abstract

It was possible to quantitate the terminal oxidase(s) reaction using bacterial resting-cell suspensions and demonstrate the usefulness of this reaction for taxonomic purposes. Resting-cell suspensions of physiologically diverse bacteria were examined for their capabilities of oxidizing N,N,N',N'-tetramethyl-p-phenylenediamine (TMPD) using a manometric assay. For organisms having this capability, it was possible to calculate the conventional TMPD oxidase Q(O2) value (microliters of O2 consumed per hour per milligram [dry weight]). All cultures were grown heterotrophically at 30 C, under identical nutritional conditions, and were harvested at the late-logarithmic growth phase. The TMPD oxidase Q(O2) values showed perfect correlation with the Kovacs oxidase test and, in addition, it was possible to define quantitatively that point which separated oxidase-positive from oxidase-negative bacteria. Oxidase-negative bacteria exhibited a TMPD oxidase Q(O2) value (after correcting for the endogenous by substraction) of less than or equal 33 and had an uncorrected TMPD/endogenous ratio of less than or equal 5. The TMPD oxidase Q(O2) values were also correlated with the data obtained for the Hugh-Leifson Oxferm test. In general, bacteria that exhibited a respiratory mechanism had high TMPD oxidase values, whereas fermentative organsims had low TMPD oxidase activity. All exceptions to this are noted. This quantitative study also demonstrated that organisms that (i) lack a type c cytochrome, or (ii) lack a cytochrome-containing electron transport system, like the lactic acid bacteria, exhibited low or negligible TMPD oxidase Q(O2) values. From the 79 bacterial species (36 genera) examined, it appears that this quantitative oxidase test has taxonomic value that can differentiate the oxidative relationships between bacteria at the subspecies, species, and genera levels.

摘要

利用细菌静息细胞悬液对末端氧化酶反应进行定量分析,并证明该反应在分类学上的实用性是可行的。使用压力测定法检测了生理特性各异的细菌静息细胞悬液氧化N,N,N′,N′-四甲基对苯二胺(TMPD)的能力。对于具有这种能力的生物体,可以计算传统的TMPD氧化酶Q(O₂)值(每小时每毫克[干重]消耗的O₂微升数)。所有培养物均在30℃下、相同营养条件下进行异养生长,并在对数生长后期收获。TMPD氧化酶Q(O₂)值与科瓦茨氧化酶试验显示出完美的相关性,此外,还可以定量定义区分氧化酶阳性和氧化酶阴性细菌的点。氧化酶阴性细菌的TMPD氧化酶Q(O₂)值(扣除内源性后校正)小于或等于33,未校正的TMPD/内源性比率小于或等于5。TMPD氧化酶Q(O₂)值也与休-利夫森氧化发酵试验获得的数据相关。一般来说,具有呼吸机制的细菌TMPD氧化酶值较高,而发酵型生物体的TMPD氧化酶活性较低。所有例外情况均已注明。这项定量研究还表明,(i)缺乏c型细胞色素或(ii)缺乏含细胞色素的电子传递系统的生物体,如乳酸菌,其TMPD氧化酶Q(O₂)值较低或可忽略不计。在所检测的79种细菌(36个属)中,这种定量氧化酶试验似乎具有分类学价值,能够在亚种、种和属水平上区分细菌之间的氧化关系。

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