Nature Biotechnology · 2003 · 770 citations · 30 references
Life SciencesBiologyMicrobiologyGenomicsMetabolismPhotosynthesisCarbon FixationCarbon MetabolismEnergy MetabolismPhotosynthesis In MicroorganismsPhotosynthetic Energy ConversionPhotosynthetic MetabolismBacterial Energy MetabolismBiological Carbon Dioxide FixationCarbon DioxidePhotosynthetic BacteriaPhotosynthetic Carbon MetabolismPhotosynthetic Metabolic NetworksWhole-genome Sequence Analysis
Rhodopseudomonas palustris is among the most metabolically versatile bacteria known, using light, inorganic or organic compounds for energy, acquiring carbon from diverse plant‑derived compounds or CO₂ fixation, and fixing nitrogen. This genome sequence is a starting point to use R. palustris as a model to explore how organisms integrate metabolic modules in response to environmental perturbations. Here we describe the genome sequence of R.
Rhodopseudomonas palustris is among the most metabolically versatile bacteria known. It uses light, inorganic compounds, or organic compounds, for energy. It acquires carbon from many types of green plant–derived compounds or by carbon dioxide fixation, and it fixes nitrogen. Here we describe the genome sequence of R. palustris, which consists of a 5,459,213-base-pair (bp) circular chromosome with 4,836 predicted genes and a plasmid of 8,427 bp. The sequence reveals genes that confer a remarkably large number of options within a given type of metabolism, including three nitrogenases, five benzene ring cleavage pathways and four light harvesting 2 systems. R. palustris encodes 63 signal transduction histidine kinases and 79 response regulator receiver domains. Almost 15% of the genome is devoted to transport. This genome sequence is a starting point to use R. palustris as a model to explore how organisms integrate metabolic modules in response to environmental perturbations.
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