Claim · model-written summary
Nitrate-N is superior to ammonium-N for nitrogen uptake and cotton growth under salinity stress.
- Taxon
- cotton
Gossypium hirsutume6 - Treatment
- Nitrate-Ne6
- Outcome
- nitrogen uptake and cotton growthe6
- Direction
- superiore6
- Comparator
- ammonium-Ne6
Not reportedMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleSettingValueQualifier
Organisms pictured · Representative pictures of the matched species, not figures from the paper.

Verbatim
e6“Nitrate-N is superior to ammonium-N based on nitrogen uptake and cotton growth under salinity stress”
Title
Comparative Effect of Nitrogen Forms on Nitrogen Uptake and Cotton Growth Under Salinity Stress
Jianlong Dai; Liusheng Duan; Hezhong Dong Journal of Plant Nutrition 2014. doi:10.1080/01904167.2014.983126
Other claims from this paper (10)
- Intervention effect Salinity stress impaired cotton plant growth.
- Intervention effect Nitrate-fed cotton plants were less sensitive to salinity than ammonium-fed plants.
- Mechanism Superior root growth of nitrate-fed cotton plants is asserted to explain their lower sensitivity to salinity.
- Intervention effect Nitrate-fed seedlings had greater root length, root surface area and root volume than ammonium-fed seedlings, with or without salinity.
- Intervention effect Nitrate-fed seedlings had greater root viability than ammonium-fed seedlings, with or without salinity.
- Intervention effect Under salinity, seedlings treated with NO3-N had lower Na+ content than those treated with NH4-N.
- Mechanism Higher root Na+ efflux is asserted to explain the lower Na+ content of NO3-N-treated cotton seedlings.
- Intervention effect Net NO3− efflux from roots of nitrate-fed plants was lower than net NH4+ efflux from roots of ammonium-fed plants.
- Intervention effect Nitrate-fed plants under salinity accumulated much more nitrogen in tissues, especially leaves.
- Intervention effect Nitrogen accumulation in nitrate-fed plants is asserted to enhance photosynthesis under salinity.