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Gene Expression during BTEX Biodegradation by a Microbial Consortium Acclimatized to Unleaded Gasoline and a Pseudomonas putida Strain (HM346961) Isolated from It
Author(s) -
Jesús A. Morlett-Chávez,
JORGE Á. ASCACIO MARTÍNEZ,
William E. Haskins,
KARIM ACUÑ ASKAR,
Hugo A. BarreraSaldaña
Publication year - 2017
Publication title -
polish journal of microbiology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.312
H-Index - 34
eISSN - 2544-4646
pISSN - 1733-1331
DOI - 10.5604/01.3001.0010.7836
Subject(s) - pseudomonas putida , btex , ethylbenzene , toluene , strain (injury) , xylene , chemistry , biodegradation , benzene , pseudomonadaceae , gasoline , pseudomonas , bioremediation , food science , microbiology and biotechnology , bacteria , biochemistry , chromatography , gene , biology , organic chemistry , genetics , anatomy
Pseudomonas putida strain (HM346961) was isolated from a consortium of bacteria acclimatized to unleaded gasoline-contaminated water. The consortium can efficiently remove benzene, toluene, ethylbenzene and xylene (BTEX) isomers, and a similar capability was observed with the P. putida strain. Proteome of this strain showed certain similarities with that of other strains exposed to the hydrocarbon compounds. Furthermore, the toluene di-oxygenase (tod) gene was up-regulated in P. putida strain when exposed to toluene, ethylbenzene, xylene, and BTEX. In contrast, the tod gene of P. putida F1 (ATCC 700007) was up-regulated only in the presence of toluene and BTEX. Several differences in the nucleotide and protein sequences of these two tod genes were observed. This suggests that tod up-regulation in P. putida strain may partially explain their great capacity to remove aromatic compounds, relative to P. putida F1. Therefore, new tod and P. putida strain are promising for various environmental applications.

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