Claim · model-written summary
Salt did not change Camelina root length.
Not reportedTaxonMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleComparatorSettingValueQualifier
Verbatim
e0“Salt reduced shoot, but not root length”
t0“Camelina sativa”
Title
Zohreh Heydarian; Min Yu; Margaret Gruber; et al. Scientific Reports 2018. doi:10.1038/s41598-018-28204-4
Other claims from this paper (15)
- Intervention effect Salt reduced Camelina shoot length.
- Intervention effect Salt affected Camelina root and shoot weight.
- Intervention effect Salt affected Camelina photosynthetic capacity.
- Intervention effect Salt did not alter shoot micro-element concentration.
- Intervention effect Salt increased shoot calcium and magnesium levels.
- Mechanism Shoot expression patterns suggested salinity-induced sodium transfer to the tonoplast.
- Mechanism Shoot expression patterns suggested increased potassium and calcium import to the cytoplasm.
- Mechanism Root expression patterns indicated sodium export by the SOS pathway under salt stress.
- Mechanism Root expression patterns indicated potassium import under salt stress.
- Observation Chelation and storage genes were upregulated in shoots.
- Mechanism Root metal detoxification appeared to use export mechanisms.
- Observation Shoot genes for lignin, anthocyanin, and wax production were upregulated.
- Observation Expression of homeologous genes showed partial genome partitioning between roots and shoots.
- Observation Subgenomes I and II contributed similarly to salt response.
- Observation Subgenome III had about 10% more differentially expressed genes than the other Camelina subgenomes.