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本文引用的文献

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2
Long-chain n-alkanes occurring during microbial degradation of petroleum.石油微生物降解过程中产生的长链正构烷烃。
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4
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5
Measuring the potential activity of hydrocarbon-degrading bacteria.测量烃降解细菌的潜在活性。
Appl Environ Microbiol. 1976 Feb;31(2):189-97. doi: 10.1128/aem.31.2.189-197.1976.
6
Effect of iron on the biodegradation of petroleum in seawater.铁对海水中石油生物降解的影响。
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北极淡水生态系统中微生物对意外汽油泄漏的响应。

Response of microorganisms to an accidental gasoline spillage in an arctic freshwater ecosystem.

作者信息

Horowitz A, Atlas R M

出版信息

Appl Environ Microbiol. 1977 Jun;33(6):1252-8. doi: 10.1128/aem.33.6.1252-1258.1977.

DOI:10.1128/aem.33.6.1252-1258.1977
PMID:879781
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC170866/
Abstract

The response of microorganisms to an accidental spillage of 55,000 gallons of leaded gasoline into an Arctic freshwater lake was studied. Shifts in microbial populations were detected after the spillage, reflecting the migration pattern of the gasoline, enrichment for hydrocarbon utilizers, and selection for leaded-gasoline-tolerant microorganisms. Ratios of gasoline-tolerant/utilizing heterotrophs to "total" heterotrophs were found to be a sensitive indicator of the degree of hydrocarbon contamination. Respiration rates were elevated in the highly contaminated area, but did not reflect differences between moderately and lightly contaminated areas. Hydrocarbon biodegradation potential experiments showed that indigenous microorganisms could extensively convert hydrocarbons to CO(2). In situ measurement of gasoline degradation showed that, if untreated, sediment samples retained significant amounts of gasoline hydrocarbons including "volatile components" at the time the lake froze for the winter. Nutrient addition and bacterial inoculation resulted in enhanced biodegradative losses, significantly reducing the amount of residual hydrocarbons. Enhanced biodegradation, however, resulted in the appearance of compounds not detected in the gasoline. Since the contaminated lake serves as a drinking water supply, treatment to enhance microbial removal of much of the remaining gasoline still may be advisable.

摘要

研究了微生物对55000加仑含铅汽油意外泄漏到北极淡水湖中的反应。泄漏后检测到微生物种群的变化,这反映了汽油的迁移模式、烃类利用菌的富集以及耐含铅汽油微生物的选择。耐汽油/利用烃类的异养菌与“总”异养菌的比例被发现是烃类污染程度的敏感指标。高污染区域的呼吸速率升高,但未反映出中度和轻度污染区域之间的差异。烃类生物降解潜力实验表明,本地微生物可将烃类大量转化为二氧化碳。汽油降解的原位测量表明,如果不进行处理,在冬季湖泊结冰时,沉积物样本中仍保留大量汽油烃类,包括“挥发性成分”。添加营养物和接种细菌导致生物降解损失增加,显著减少了残留烃类的量。然而,增强的生物降解导致出现了汽油中未检测到的化合物。由于受污染的湖泊是饮用水源,因此仍建议进行处理以增强微生物对大部分剩余汽油的去除。