Isolation and characterization of methane utilizing bacteria from wetland paddy ecosystem
World Journal of Microbiology and Biotechnology, 2014•Springer
Methylotrophic bacteria which are known to utilize C1 compounds including methane.
Research during past few decades increased the interest in finding out novel genera of
methane degrading bacteria to efficiently utilize methane to decrease global warming effect.
Moreover, evaluation of certain known plant growth promoting strains for their methane
degrading potential may open up a new direction for multiple utility of such cultures. In this
study, efficient methylotrophic cultures were isolated from wetland paddy fields of Gujarat …
Research during past few decades increased the interest in finding out novel genera of
methane degrading bacteria to efficiently utilize methane to decrease global warming effect.
Moreover, evaluation of certain known plant growth promoting strains for their methane
degrading potential may open up a new direction for multiple utility of such cultures. In this
study, efficient methylotrophic cultures were isolated from wetland paddy fields of Gujarat …
Abstract
Methylotrophic bacteria which are known to utilize C1 compounds including methane. Research during past few decades increased the interest in finding out novel genera of methane degrading bacteria to efficiently utilize methane to decrease global warming effect. Moreover, evaluation of certain known plant growth promoting strains for their methane degrading potential may open up a new direction for multiple utility of such cultures. In this study, efficient methylotrophic cultures were isolated from wetland paddy fields of Gujarat. From the overall morphological, biochemical and molecular characterization studies, the isolates were identified and designated as Bacillus aerius AAU M 8; Rhizobium sp. AAU M 10; B. subtilis AAU M 14; Paenibacillus illinoisensis AAU M 17 and B. megaterium AAU M 29. Gene specific PCR analysis of the isolates, P. illinoisensis, B. aerius, Rhizobium sp. and B. subtilis showed presence of pmoA gene encoding α subunit particulate methane monooxygenase cluster. B. megaterium, P. illinoisensis, Rhizobium sp. and Methylobacterium extrorquens showed presence of mmoX gene encoding α subunit of the hydroxylase component of the soluble methane monooxygenase cluster. P. illinoisensis and Rhizobium sp. showed presence mxaF gene encoding α subunit region of methanol dehydrogenase gene cluster showing that both isolates are efficient utilizers of methane. To the best of our knowledge, this is the first time report showing presence of methane degradation enzymes and genes within the known PGPB group of organisms from wet land paddy agro-ecosystem, which is considered as one of the leading methane producer.
Springer
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