Being a salt sensitive crop, @entity579 growth and development are frequently affected by soil salinity. @entity3957 ( @entity3958 ) has been recently explored as an important priming agent regulating diverse physiological processes of plant growth and development. Despite its enormous prospects in plant systems, the role of @entity3958 in plant stress tolerance is still elusive. Here, a combined pharmacological, physiological and biochemical approach was executed aiming to examine the possible mechanism of @entity3958 in enhancement of @entity579 salt stress tolerance. We showed that pretreating @entity579 plants with @entity3958 donor @entity8835 ( @entity8835 ) clearly improved, but application of @entity3958 scavenger @entity37405 with @entity8835 decreased growth and biomass-related parameters under salt stress. @entity8835 -pretreated salt-stressed plants exhibited increased @entity38 , carotenoid and soluble protein contents, as well as suppressed accumulation of reactive @entity26 species (ROS), contributing to oxidative damage protection. The protective mechanism of @entity3958 against oxidative stress was correlated with the elevated levels of @entity620 , @entity2041 , redox states, and the enhanced activities of ROS- and @entity14625 -detoxifying enzymes. Notably, the ability to decrease the uptake of @entity4024 and the @entity4024 / @entity3529 ratio, as well as to balance mineral contents indicated a role of @entity3958 in ion homeostasis under salt stress. Altogether, our results highlight that modulation of the level of endogenous @entity3958 genetically or exogenously could be employed to attain better growth and development of @entity579 , and perhaps other crops, under salt stress. Furthermore, our study reveals the importance of the implication of gasotransmitters like @entity3958 for the management of salt stress, thus assisting @entity579 plants to adapt to adverse environmental changes.

@entity3957 Regulates Salt Tolerance in @entity579 by Maintaining XXXX / @entity3529 Balance, Mineral Homeostasis and Oxidative Metabolism Under Excessive Salt Stress.

@entity3958 :: ('CHEBI:36945', 'Chemical') :: ['H2S'] @entity14625 :: ('MESH:D011765', 'Chemical') :: ['methylglyoxal'] @entity3529 :: ('D011188', 'Chemical') :: ['K(+)'] @entity4024 :: ('D012964', 'Chemical') :: ['Na(+)'] @entity620 :: ('MESH:D001205', 'Chemical') :: ['ascorbic acid'] @entity26 :: ('MESH:D010100', 'Chemical') :: ['oxygen'] @entity2041 :: ('MESH:D005978', 'Chemical') :: ['glutathione'] @entity8835 :: ('MESH:C025451', 'Chemical') :: ['NaHS', 'sodium bisulfide'] @entity37405 :: ('MESH:C003949', 'Chemical') :: ['hypotaurine'] @entity3957 :: ('MESH:D006862', 'Chemical') :: ['Hydrogen sulfide'] @entity579 :: ('4530', 'Species') :: ['rice'] @entity38 :: ('MESH:D002734', 'Chemical') :: ['chlorophyll']
@entity4024 :: (D012964,Chemical) :: ['Na(+)']
