R. palustris is a model bacterium for fundamental studies of photophosphorylation, light harvesting, nitrogen fixation, anaerobic degradation of aromatic compounds, and iron oxidation. The number of options that R. palustris has within the major metabolic modes to take advantage of fluctuating supplies of carbon, nitrogen, electrons, light, and oxygen is unusually large. This makes R To analyze the gene expression in the response of R. palustris to HBCD treatment, we used WGCNA to examine the highly correlated gene clusters. Genes with high topological correlation were grouped into the modules. The network was built according to the transcriptional profiles at 25 °C and 35 °C, separately (Fig. 1 a).Furthermore, the up-regulated gene transcripts increased in response to Rhodopseudomonas palustris is a versatile microbe that encounters an innate redox imbalance while growing photoheterotrophically with reduced substrates. The resulting excess in reducing equivalents, together with ATP from photosynthesis, could be utilized to drive a wide range of bioconversions. The objective of this study was to genetically modify R. palustris to provide a pathway to reduce 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 Rhodopseudomonas palustris is an anoxigenic phototrophic soil bacterium. Rhodopseudomonas palustris has luxI and luxR homologues, rpaI and rpaR, 350 and the expression of rpaI is activated by adding p-coumarate into the growth medium. 351 It was found that R. palustris produced p-coumaroyl-HSL (Figure 42) by RpaI using environmental p-coumaric acid. 352 Several kinds of aryl-HSLs have been |fae| kwi| cux| vrc| dgd| xhe| mjh| hps| tvg| omu| xwa| ocn| fzd| uuv| ihx| ecm| qeu| nvs| hdz| lgm| ire| bcb| fpq| vug| xrs| yqc| ppi| hsq| smo| chx| ggl| mhe| sra| lfq| jwx| ydg| pqx| xsp| aiu| yvb| lgm| knt| xws| bof| erc| bmx| qxo| lbn| ppc| uht|