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纳米硅和常规硅肥对盐堿地玉米生长和养分积累的影响。

Effects of silicon nanoparticles and conventional Si amendments on growth and nutrient accumulation by maize (Zea mays L.) grown in saline-sodic soil.

机构信息

Institute of Soil and Environmental Sciences, University of Agriculture, Faisalabad, 38000, Pakistan.

Institute of Soil and Environmental Sciences, University of Agriculture, Faisalabad, 38000, Pakistan.

出版信息

Environ Res. 2023 Jun 15;227:115740. doi: 10.1016/j.envres.2023.115740. Epub 2023 Mar 28.

DOI:10.1016/j.envres.2023.115740
PMID:36997044
Abstract

Salinity is one of the major abiotic stresses in arid and semiarid climates which threatens the food security of the world. Present study had been designed to assess the efficacy of different abiogenic sources of silicon (Si) to mitigate the salinity stress on maize crop grown on salt-affected soil. Abiogenic sources of Si including silicic acid (SA), sodium silicate (Na-Si), potassium silicate (K-Si), and nanoparticles of silicon (NPs-Si) were applied in saline-sodic soil. Two consecutive maize crops with different seasons were harvested to evaluate the growth response of maize under salinity stress. Post-harvest soil analysis showed a significant decrease in soil electrical conductivity of soil paste extract (EC) (-23.0%), sodium adsorption ratio (SAR) (-47.7%) and pH of soil saturated paste (pHs) (-9.5%) by comparing with salt-affected control. Results revealed that the maximum root dry weight was recorded in maize1 by the application of NPs-Si (149.3%) and maize2 (88.6%) over control. The maximum shoot dry weight was observed by the application of NPs-Si in maize1 (42.0%) and maize2 (7.4%) by comparing with control treatment. The physiological parameters like chlorophyll contents (52.5%), photosynthetic rate (84.6%), transpiration (100.2%), stomatal conductance (50.5%), and internal CO concentration (61.6%) were increased by NPs-Si in the maize1 crop when compared with the control treatment. The application of an abiogenic source (NPs-Si) of Si significantly increased the concentration of phosphorus (P) in roots (223.4%), shoots (22.3%), and cobs (130.3%) of the first maize crop. The current study concluded that the application of NPs-Si and K-Si improved the plant growth by increasing the availability of nutrients like P and potassium (K), physiological attributes, and by reducing the salts stress and cationic ratios in maize after maize crop rotation..

摘要

盐度是干旱和半干旱气候下的主要非生物胁迫之一,威胁着世界的粮食安全。本研究旨在评估不同的非生物硅源(Si)对减轻盐渍土壤上玉米作物盐胁迫的功效。非生物硅源包括硅酸(SA)、硅酸钠(Na-Si)、硅酸钾(K-Si)和纳米硅颗粒(NPs-Si),应用于盐渍-苏打土壤中。进行了两个连续的具有不同季节的玉米作物收获,以评估玉米在盐胁迫下的生长响应。收获后的土壤分析表明,与受盐影响的对照相比,土壤电导率(EC)降低了 23.0%,钠吸附比(SAR)降低了 47.7%,土壤饱和糊状物的 pH 值(pHs)降低了 9.5%。结果表明,与对照相比,NPs-Si 在玉米 1 中的最大根干重(149.3%)和玉米 2 中的最大根干重(88.6%)。与对照处理相比,NPs-Si 在玉米 1 中的最大茎干重(42.0%)和玉米 2 中的最大茎干重(7.4%)。生理参数如叶绿素含量(52.5%)、光合速率(84.6%)、蒸腾(100.2%)、气孔导度(50.5%)和内部 CO 浓度(61.6%)在玉米 1 中增加。与对照处理相比,非生物源(NPs-Si)Si 的应用显著增加了第一茬玉米根部(223.4%)、茎部(22.3%)和穗部(130.3%)中磷(P)的浓度。本研究得出的结论是,NPs-Si 和 K-Si 的应用通过增加 P 和钾(K)等养分的有效性、生理特性以及通过降低玉米轮作后盐胁迫和阳离子比来提高植物生长。

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