The “Green Revolution,” which began in the 1950s, resulted in new, high-yielding varieties of wheat and rice due to the introduction of dwarfing genes into traditional, tall varieties: Reduced height ( Rht) in wheat and semidwarf1 ( sd1) in rice ( 3). The optimization of plant architecture has also been one of the most effective ways to improve crop productivity. Optimized plant architecture, both above and below ground, is required for plants to adapt to different environments ( 1, 2). Our findings suggest that DRO1 homologs are valuable targets for RSA breeding and could lead to improved rice production in environments characterized by abiotic stress. In saline paddies, near-isogenic lines carrying the qSOR1 loss-of-function allele had soil-surface roots (SOR) that enabled rice to avoid the reducing stresses of saline soils, resulting in increased yields compared to the parental cultivars without SOR. Introgression lines with combinations of gain-of-function and loss-of-function alleles in qSOR1 and DRO1 demonstrated four different RSAs (ultra-shallow, shallow, intermediate, and deep rooting), suggesting that natural alleles of the DRO1 homologs could be utilized to control RSA variations in rice. CRISPR-Cas9 assays revealed that other DRO1 homologs were also involved in RGA.
qSOR1 was found to be a homolog of DRO1 ( DEEPER ROOTING 1), which is known to control RGA. qSOR1 is negatively regulated by auxin, predominantly expressed in root columella cells, and involved in the gravitropic responses of roots. Here, we have demonstrated, through the cloning and characterization of qSOR1 ( quantitative trait locus for SOIL SURFACE ROOTING 1), that a shallower root growth angle (RGA) could enhance rice yields in saline paddies. Salinity is a growing problem worldwide that negatively impacts on crop productivity, and it is believed that yields could be improved if RSAs that enabled plants to avoid saline conditions were identified. "Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II)",Ī.The root system architecture (RSA) of crops can affect their production, particularly in abiotic stress conditions, such as with drought, waterlogging, and salinity. Âsaui atyndaġy Halyk̦aralyk̦ k̦azak̦-tùrìk universitetìnìn̦ habaršysy. Âsaui atyndaġy Halyk̦aralyk̦ k̦azak̦-tùrìk universitetìnìn̦ habaršysyĮlectrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II).Ī. %T Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II) Âsaui atyndaġy Halyk̦aralyk̦ k̦azak̦-tùrìk universitetìnìn̦ habaršysy Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II) Âsaui atyndaġy Halyk̦aralyk̦ k̦azak̦-tùrìk universitetìnìn̦ habaršysy T1 - Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II) "Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II)". Âsaui atyndaġy Halyk̦aralyk̦ k̦azak̦-tùrìk universitetìnìn̦ habaršysy (2019 "Electrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II)"Ī. Kaynak Göster makalesi Įlectrochemical methods for decontamination of industrial waste of the gas nitrogen oxide (II)Ī.
Kolichestvennyj analiz neorganicheskih soedinenij. Russian Journal of Physical Chemistry A, 2018, Vol. Kinetics and Mechanism of Cathodic Reduction of Nitrate Ions in a Sulfuric Acid Solution.
Electrochemical Behavior of Silver Electrode in Sulphuric Acidic Solution During Anodic Polarization. Bayeshov A., Tukibayeva A., Aibolova G., Tuleshova E., Baineyeva F. Kuramynda azot (ІІ) oksidі bar ondіrіs kaldyktaryn totyktyru negіzіnde zalalsyzdandyru//KR UGA Bayandamalary. Kyshkyl zhanbyrlar zhane olardyn korshagan ortaga aserі // Himiya mektepte. Sadanova A.K., Abzhalelov A.B., Taubekova Ғ.K., Askarova U.B. Ekologiya: zhogary oku ornyna arnalgan oku kuraly / Almaty: «Bastau». Modeling of nitrogen oxides formation and destruction in combustion sustems // Prog.
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