TY - JOUR
T1 - Complete genome sequence of Nitratireductor sp. strain OM-1
T2 - A lipid-producing bacterium with potential use in wastewater treatment
AU - Okamura, Yoshiko
AU - Treu, Laura
AU - Campanaro, Stefano
AU - Yamashita, Sena
AU - Nakai, Shota
AU - Takahashi, Hirokazu
AU - Watanabe, Kenshi
AU - Angelidaki, Irini
AU - Aki, Tsunehiro
AU - Matsumura, Yukihiko
AU - Nakashimada, Yutaka
PY - 2019
Y1 - 2019
N2 - Reducing CO2 emissions is necessary to alleviate rising global temperature. Renewable sources of energy are becoming an increasingly important substitute for fossil fuels. An important step in this direction is the isolation of novel, technologically relevant microorganisms. Nitratireductor sp. strain OM-1 can convert volatile short-chain fatty acids in wastewater into 2-butenoic acid and its ester and can accumulate intracellularly esterified compounds up to 50% of its dried cell weight under nitrogen-depleted conditions. It is believed that a novel fatty acid biosynthesis pathway including an esterifying enzyme is encoded in its genome. In this study, we report the whole-genome sequence (4.8 Mb) of OM-1, which comprises a chromosome (3,977,827 bp) and a megaplasmid (857,937 bp). This sequence information provides insight into the genome organization and biochemical pathways of OM-1. In addition, we identified lipid biosynthesis pathways in OM-1, paving the way to a better understanding of its biochemical characterization.
AB - Reducing CO2 emissions is necessary to alleviate rising global temperature. Renewable sources of energy are becoming an increasingly important substitute for fossil fuels. An important step in this direction is the isolation of novel, technologically relevant microorganisms. Nitratireductor sp. strain OM-1 can convert volatile short-chain fatty acids in wastewater into 2-butenoic acid and its ester and can accumulate intracellularly esterified compounds up to 50% of its dried cell weight under nitrogen-depleted conditions. It is believed that a novel fatty acid biosynthesis pathway including an esterifying enzyme is encoded in its genome. In this study, we report the whole-genome sequence (4.8 Mb) of OM-1, which comprises a chromosome (3,977,827 bp) and a megaplasmid (857,937 bp). This sequence information provides insight into the genome organization and biochemical pathways of OM-1. In addition, we identified lipid biosynthesis pathways in OM-1, paving the way to a better understanding of its biochemical characterization.
KW - Biodiesel production
KW - Ester synthesis
KW - Nitratireductor
KW - Short-chain fatty acid
KW - Whole genome sequence
U2 - 10.1016/j.btre.2019.e00366
DO - 10.1016/j.btre.2019.e00366
M3 - Journal article
C2 - 31467863
AN - SCOPUS:85070893390
SN - 2215-017X
VL - 24
JO - Biotechnology Reports
JF - Biotechnology Reports
M1 - e00366
ER -