Claim · model-written summary
The 8 mg L− 1 Mo treatment produced more differentially expressed genes than other concentrations.
- Taxon
- foxtail millet
Setaria italicae1 - Treatment
- 8 mg L− 1 Moe3
- Outcome
- differentially expressed genes (DEGs)e3
- Direction
- moree3
- Qualifier
- stronger response at this thresholde3
- Comparator
- other concentrationse3
Not reportedMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleSettingValue
Organisms pictured · Representative pictures of the matched species, not figures from the paper.
Verbatim
t0“Setaria Italica L.”
e1“low concentrations of Mo increased the growth of foxtail millet”
e3“there were more differentially expressed genes (DEGs) at 8 mg L− 1 Mo compared to other concentrations, indicating that foxtail millet had a stronger response at this threshold”
Title
Meijun Guo; Mengmeng Sun; Yaqing Bai; et al. Plant Growth Regulation 2026. doi:10.1007/s10725-025-01406-3
Other claims from this paper (9)
- Intervention effect Low Mo concentrations increased the growth of foxtail millet.
- Intervention effect High Mo concentrations suppressed the growth of foxtail millet.
- Intervention effect The 15 mg L− 1 Mo treatment inhibited starch and sucrose metabolism compared with 8 mg L− 1.
- Intervention effect The 15 mg L− 1 Mo treatment enhanced phenylpropanoid and flavonoid biosynthesis compared with 8 mg L− 1.
- Intervention effect High Mo levels up-regulated key carotenoid biosynthesis genes.
- Observation High Mo levels modulated hormone signaling in foxtail millet.
- Mechanism High Mo levels boosted stress resilience in foxtail millet.
- Observation RNA-seq of foxtail millet under varying Mo levels identified crucial pathways including phenylpropanoid synthesis, starch metabolism and hormone signaling.
- Mechanism Supra-optimal Mo affected foxtail millet physiology through carbon and nitrogen cycle imbalance and antioxidant impairment, ultimately suppressing growth.