Claim · model-written summary
SMM priming decreased the translocation and accumulation of Cd in Szarvasi-1.
- Taxon
- Szarvasi-1e1
- Treatment
- SMM priminge4
- Outcome
- translocation and accumulation of Cde5
- Direction
- decreasede5
Not reportedMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleComparatorSettingValueQualifier
Verbatim
e1“cv. Szarvasi-1) is a biomass plant”
e4“Except for stomatal conductance, SMM priming had a positive effect on these parameters compared to Cd treatment without priming”
e5“In addition, it decreased the translocation and accumulation of Cd”
Title
Deepali Rana; Vitor Arcoverde Cerveira Sterner; Aravinda Kumar Potluri; et al. Plants 2022. doi:10.3390/plants11212979
Other claims from this paper (11)
- Intervention effect Cd exposure decreased root and shoot growth in Szarvasi-1.
- Intervention effect Cd exposure decreased chlorophyll concentration, stomatal conductance and photosystem II function in Szarvasi-1.
- Intervention effect Cd exposure increased carotenoid content in Szarvasi-1.
- Intervention effect SMM priming had a positive effect on the growth and physiological parameters, except stomatal conductance, compared with Cd treatment without priming.
- Intervention effect Cd treatment decreased K, Mg and Mn in the roots of Szarvasi-1 compared with the untreated control.
- Intervention effect Cd treatment decreased Zn and P in the roots of Szarvasi-1 compared with the untreated control.
- Intervention effect Cd treatment decreased K, S and Cu in the shoots of Szarvasi-1 compared with the untreated control.
- Intervention effect Cd treatment decreased Zn in the shoots of Szarvasi-1 compared with the untreated control.
- Intervention effect SMM priming changed the pattern of nutrient uptake in Szarvasi-1.
- Association Fe showed characteristic accumulation in the roots of Szarvasi-1 in response to increasing SMM concentrations.
- Mechanism The ameliorative effect of SMM priming is suggested to rest on lower root-to-shoot Cd translocation driven by upregulated Fe uptake and transport.