Microvirga lotononidis: U0023_12535
Help
Entry
U0023_12535 CDS
T09656
Name
(GenBank) VOC family protein
KO
K07104
catechol 2,3-dioxygenase [EC:
1.13.11.2
]
Organism
mld
Microvirga lotononidis
Pathway
mld00361
Chlorocyclohexane and chlorobenzene degradation
mld00362
Benzoate degradation
mld00622
Xylene degradation
mld00643
Styrene degradation
mld01100
Metabolic pathways
mld01120
Microbial metabolism in diverse environments
mld01220
Degradation of aromatic compounds
Brite
KEGG Orthology (KO) [BR:
mld00001
]
09100 Metabolism
09111 Xenobiotics biodegradation and metabolism
00362 Benzoate degradation
U0023_12535
00361 Chlorocyclohexane and chlorobenzene degradation
U0023_12535
00622 Xylene degradation
U0023_12535
00643 Styrene degradation
U0023_12535
Enzymes [BR:
mld01000
]
1. Oxidoreductases
1.13 Acting on single donors with incorporation of molecular oxygen (oxygenases)
1.13.11 With incorporation of two atoms of oxygen
1.13.11.2 catechol 2,3-dioxygenase
U0023_12535
BRITE hierarchy
SSDB
Ortholog
Paralog
Gene cluster
GFIT
Motif
Pfam:
Glyoxalase
Ble-like_N
Glyoxalase_4
Glyoxalase_6
YycE-like_N
Glyoxalase_3
Motif
Other DBs
NCBI-ProteinID:
WQO25549
LinkDB
All DBs
Position
2664406..2664933
Genome browser
AA seq
175 aa
AA seq
DB search
MVKPLHQDATGVPVARPIDPGVRIGHVHLKVADLDRALAFYCGVLGFELIQRYGTQAAFV
SAGGYHHHIGLNTWESKGGSPPPPGTTGLYHVAILYPTRAALADALYRLAEAGIPLQGAS
DHGVSEALYLSDPDGNGIELYVDRPEDQWPKTANGELAMVTQRLDLQDLLAAREA
NT seq
528 nt
NT seq
+upstream
nt +downstream
nt
atggtcaagccccttcaccaggatgccaccggagtaccggtggcccgtcccatcgatccc
ggcgtcaggatcggccatgtccacctgaaggtggccgatctcgatcgtgcgctcgccttc
tattgcggggtgctcggtttcgagctgatccagcgctacgggacccaggccgccttcgtc
tcggcgggcggctaccaccaccacatcggcctgaacacctgggagagcaagggtggctcc
ccgccgcctcccggcacgacagggctctaccatgtggcgatcctctatccgacacgggcg
gccctcgcggatgcgctctaccgtctggccgaggccggcattccgctgcagggcgcgagc
gatcacggggtcagcgaagcgctttatctgagcgatccggacggcaacggcatcgagctc
tatgtcgaccggccggaggaccagtggcccaagaccgcgaacggcgagcttgccatggtc
acgcaacgcctcgacctgcaggacctgctggcggcccgcgaagcttga
DBGET
integrated database retrieval system