Claim · model-written summary
BnaGARPs showed differential expression under salt stress, pointing to a possible role in nutrient stress responses.
Not reportedMaterialCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleComparatorSettingDirectionValueQualifier
Verbatim
e0“allotetraploid rapeseed (Brassica napus L.)”
e1“Differential expression of BnaGARPs under low nitrate, ammonium toxicity, limited phosphate, deficient boron, salt stress, and cadmium toxicity conditions indicated their potential involvement in diverse nutrient stress responses”
Title
Ying-Peng Hua; Peng-Jia Wu; Tian-Yu Zhang; et al. International Journal of Molecular Sciences 2022. doi:10.3390/ijms232214484
Other claims from this paper (13)
- Observation 146 BnaGARP members were identified from the rapeseed genome.
- Observation BnaGARP transcription factors were divided into five subfamilies.
- Observation Members within the same subfamily share similar exon-intron structures and conserved motif configuration.
- Observation The GARP family in rapeseed principally underwent purifying selection, as shown by Ka/Ks ratios.
- Observation Cis-acting regulatory elements were identified in the promoters of BnaGARPs.
- Observation 29 putative miRNAs were identified as targeting BnaGARPs.
- Intervention effect BnaGARPs showed differential expression under low nitrate, pointing to a possible role in nutrient stress responses.
- Intervention effect BnaGARPs showed differential expression under ammonium toxicity, pointing to a possible role in nutrient stress responses.
- Intervention effect BnaGARPs showed differential expression under limited phosphate, pointing to a possible role in nutrient stress responses.
- Intervention effect BnaGARPs showed differential expression under deficient boron, pointing to a possible role in nutrient stress responses.
- Intervention effect BnaGARPs showed differential expression under cadmium toxicity, pointing to a possible role in nutrient stress responses.
- Intervention effect BnaA9.HHO1 and BnaA1.HHO5 were transcriptionally responsive to nutrient stresses in both shoots and roots.
- Mechanism BnaA9.HHO1 and BnaA1.HHO5 may play a core role in rapeseed resistance to nutrient stresses (hypothesis).