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• W2896689292 abstract "Sustainable management of voluminous and hazardous oily sludge produced by petroleum refineries remains a challenging problem worldwide. Characterization of microbial communities of petroleum contaminated sites has been considered as the essential prerequisite for implementation of suitable bioremediation strategies. Three petroleum refinery sludge samples from North Eastern India were analyzed using next-generation sequencing technology to explore the diversity and functional potential of inhabitant microorganisms and scope for their on-site bioremediation. All sludge samples were hydrocarbon rich, anaerobic and reduced with sulfate as major anion and several heavy metals. High throughput sequencing of V3-16S rRNA genes from sludge metagenomes revealed dominance of strictly anaerobic, fermentative, thermophilic, sulfate-reducing bacteria affiliated to Coprothermobacter, Fervidobacterium, Treponema, Syntrophus, Thermodesulfovibrio, Anaerolinea, Syntrophobacter, Anaerostipes, Anaerobaculum, etc., which have been well known for hydrocarbon degradation. Relatively higher proportions of archaea were detected by qPCR. Archaeal 16S rRNA gene sequences showed presence of methanogenic Methanobacterium, Methanosaeta, Thermoplasmatales, etc. Detection of known hydrocarbon utilizing aerobic/facultative anaerobic (Mycobacterium, Pseudomonas, Longilinea, Geobacter, etc.), nitrate reducing (Gordonia, Novosphigobium, etc.) and nitrogen fixing (Azovibrio, Rhodobacter, etc.) bacteria suggested niche specific guilds with aerobic, facultative anaerobic and strict anaerobic populations. Phylogenetic Investigation of Communities by Reconstruction of Unobserved States (PICRUSt) predicted putative genetic repertoire of sludge microbiomes and their potential for hydrocarbon degradation; lipid-, nitrogen-, sulfur- and methane- metabolism. Methyl coenzyme M reductase A (mcrA) and dissimilatory sulfite reductase beta-subunit (dsrB) genes phylogeny confirmed methanogenic and sulfate-reducing activities within sludge environment endowed by hydrogenotrophic methanogens and sulfate-reducing Deltaproteobacteria and Firmicutes members. Refinery sludge microbiomes were comprised of hydrocarbon degrading, fermentative, sulfate-reducing, syntrophic, nitrogen fixing and methanogenic microorganisms, which were in accordance with the prevailing physicochemical nature of the samples. Analysis of functional biomarker genes ascertained the activities of methanogenic and sulfate-reducing organisms within sludge environment. Overall data provided better insights on microbial diversity and activity in oil contaminated environment, which could be exploited suitably for in situ bioremediation of refinery sludge." @default.
• W2896689292 created "2018-10-26" @default.
• W2896689292 creator A5005888378 @default.
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• W2896689292 date "2018-10-22" @default.
• W2896689292 modified "2023-10-12" @default.
• W2896689292 title "Petroleum hydrocarbon rich oil refinery sludge of North-East India harbours anaerobic, fermentative, sulfate-reducing, syntrophic and methanogenic microbial populations" @default.
• W2896689292 cites W1555433428 @default.
• W2896689292 cites W1778445905 @default.
• W2896689292 cites W1837827509 @default.
• W2896689292 cites W1941696159 @default.
• W2896689292 cites W1974103076 @default.
• W2896689292 cites W1975104478 @default.
• W2896689292 cites W1978025130 @default.
• W2896689292 cites W1984143822 @default.
• W2896689292 cites W1986241456 @default.
• W2896689292 cites W1988808004 @default.
• W2896689292 cites W1989097861 @default.
• W2896689292 cites W1995962575 @default.
• W2896689292 cites W1998498942 @default.
• W2896689292 cites W1998967587 @default.
• W2896689292 cites W1999378041 @default.
• W2896689292 cites W2000551353 @default.
• W2896689292 cites W2003354884 @default.
• W2896689292 cites W2006337236 @default.
• W2896689292 cites W2013291904 @default.
• W2896689292 cites W2015411335 @default.
• W2896689292 cites W2022337224 @default.
• W2896689292 cites W2033620555 @default.
• W2896689292 cites W2034750820 @default.
• W2896689292 cites W2042838051 @default.
• W2896689292 cites W2047123267 @default.
• W2896689292 cites W2062809849 @default.
• W2896689292 cites W2069548458 @default.
• W2896689292 cites W2072970694 @default.
• W2896689292 cites W2078282404 @default.
• W2896689292 cites W2079593021 @default.
• W2896689292 cites W2082393237 @default.
• W2896689292 cites W2082505257 @default.
• W2896689292 cites W2082525873 @default.
• W2896689292 cites W2083907880 @default.
• W2896689292 cites W2089352282 @default.
• W2896689292 cites W2089389007 @default.
• W2896689292 cites W2090770500 @default.
• W2896689292 cites W2094976959 @default.
• W2896689292 cites W2098446332 @default.
• W2896689292 cites W2099957049 @default.
• W2896689292 cites W2101597085 @default.
• W2896689292 cites W2108718991 @default.
• W2896689292 cites W2110300022 @default.
• W2896689292 cites W2110305508 @default.
• W2896689292 cites W2115715434 @default.
• W2896689292 cites W2118148390 @default.
• W2896689292 cites W2121633460 @default.
• W2896689292 cites W2122658189 @default.
• W2896689292 cites W2123220024 @default.
• W2896689292 cites W2132632499 @default.
• W2896689292 cites W2133555263 @default.
• W2896689292 cites W2134420054 @default.
• W2896689292 cites W2135614313 @default.
• W2896689292 cites W2140881063 @default.
• W2896689292 cites W2153858641 @default.
• W2896689292 cites W2160011609 @default.
• W2896689292 cites W2161545074 @default.
• W2896689292 cites W2164192113 @default.
• W2896689292 cites W2165864881 @default.
• W2896689292 cites W2168104108 @default.
• W2896689292 cites W2174299168 @default.
• W2896689292 cites W2192894614 @default.
• W2896689292 cites W2250583300 @default.
• W2896689292 cites W2276784535 @default.
• W2896689292 cites W2280918011 @default.
• W2896689292 cites W2323979244 @default.
• W2896689292 cites W2341016763 @default.
• W2896689292 cites W2397789933 @default.
• W2896689292 cites W2464508583 @default.
• W2896689292 cites W2518200508 @default.
• W2896689292 cites W2518574522 @default.
• W2896689292 cites W2522210750 @default.
• W2896689292 cites W2537383768 @default.
• W2896689292 cites W2552216797 @default.
• W2896689292 cites W2553993469 @default.
• W2896689292 cites W2593388878 @default.
• W2896689292 cites W2607931939 @default.
• W2896689292 cites W2610296384 @default.
• W2896689292 cites W2614276784 @default.
• W2896689292 cites W2745448799 @default.
• W2896689292 cites W2793188581 @default.
• W2896689292 cites W4240190956 @default.
• W2896689292 doi "https://doi.org/10.1186/s12866-018-1275-8" @default.
• W2896689292 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/6198496" @default.
• W2896689292 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/30348104" @default.
• W2896689292 hasPublicationYear "2018" @default.

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