Aromatic compounds degradation plays a role in colonization of Arabidopsis thaliana and Acacia caven by Cupriavidus pinatubonensis JMP134

Keyphrases

• Arabidopsis Thaliana 100%
• Acacia Caven 100%
• Cupriavidus pinatubonensis JMP134 100%
• Aromatic Compound Degradation 100%
• Root Exudates 100%
• 2,4-Dichlorophenoxyacetic Acid 50%
• Aromatic Compounds 50%
• Rhizosphere 50%
• Xenobiotics 50%
• Soil Bacteria 25%
• Soil Microcosm 25%
• Bacterial Degradation 25%
• Degradation Pathway 25%
• Aromatic Pollutants 25%
• Rhizosphere Colonization 25%
• Rhizoplane 25%
• Plant Host 25%
• Plant-soil 25%
• Deleterious Effects 25%
• Herbicide 25%
• In Vitro Culture 25%
• Energy Sources 25%
• Aromatic Degradation 25%
• Toxic Concentration 25%
• Aromatic Components 25%
• Plant Rhizosphere 25%
• Gene Inactivation 25%
• Aromatics 25%
• Endorhizosphere 25%
• Gnotobiotic 25%
• Catabolic 25%
• Internal Tissues 25%
• Degrader 25%
• Carbon Source 25%
• Metabolic Flexibility 25%
• Metabolically Active 25%
• Mutant Strain 25%

INIS

• arabidopsis 100%
• roots 100%
• aromatic compounds 100%
• aromatics 80%
• strains 60%
• soils 40%
• bacteria 40%
• mutants 40%
• host 40%
• xenobiotics 40%
• levels 20%
• habitat 20%
• genes 20%
• microcosms 20%
• growth 20%
• concentration 20%
• tissues 20%
• toxicity 20%
• pollutants 20%
• molecules 20%
• herbicides 20%
• in vitro 20%
• inactivation 20%
• energy sources 20%
• carbon sources 20%

Immunology and Microbiology

• Arabidopsis thaliana 100%
• Acacia 100%
• Cupriavidus 100%
• Root Exudate 100%
• Aromatic Compound 100%
• Xenobiotic 50%
• Plant Root 25%
• Soil Microflora 25%
• Toxic Concentration 25%
• Gnotobiotics 25%
• Gene Inactivation 25%
• Bacterium 25%
• In Vitro 25%