盐胁迫下添加纳米生物炭和亏缺灌溉对藜麦植株生长、生理和水分生产力的影响

IF 4.5 2区 生物学 Q2 ENVIRONMENTAL SCIENCES
Ommolbanin Tourajzadeh , Halimeh Piri , Amir Naserin , Mohammad mahdi Cahri
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引用次数: 0

摘要

NB与降低灌水深度相结合可以减轻盐胁迫和干旱胁迫的负面影响,提高藜麦水分生产力(WP)。试验是在温室条件下进行的。在半干旱地区进行了为期两年的研究,采用因子实验,采用完全随机设计,有三个重复。试验处理包括3个盐度水平(S1: 1 dS m−1、S2: 4 dS m−1、S3: 7 dS m−1)、3个灌溉深度(I1: 60%、I2: 80%、I3: 100%)和3个纳米生物炭(NB)水平(NB1: 0%、NB2: 2%、NB3: 4%)。仔细测定每盆叶面积指数(LAI)、千粒重(WOS)、穗重(SW)、种子产量(SY)和WP等参数。测定了种子蛋白质(SP)、碳水化合物(CBH)、脯氨酸(PR)、叶绿素a和叶绿素b (CHLa和CHLb)含量等生理特性。结果表明,盐胁迫和干旱胁迫分别降低了水稻幼苗幼苗的SY值14.1 ~ 37.81%、11.92% ~ 28.96%。而施用2%的氮肥对西南地区、西南地区和LAI的盐胁迫和干旱胁迫的缓解效果分别为40.75%、26.55%、13.88%和10.89%。4% NB的使用使PR和CHB的用量分别减少了50.16%和22.62%。将灌水深度降低到植株需水量的80%,使用2%的NB和4 dS m−1的盐度,可以增加SP的量。降低含盐量和降低灌溉水深度可增加WP。I1NB2S1处理的WP最高(12.51 kg m−3),I3NB3S3处理的WP最低(6.15 kg m−3)。与对照相比,适量NB的施用减轻了盐胁迫和干旱胁迫的负面影响,改善了藜麦的生长。因此,建议用于植物,特别是在植物遭受干旱胁迫的条件下,或在温室中使用,以减少耗水量,提高植物的生长和产量。考虑到2和4 dS m−1盐处理对产量无显著影响,且4 dS m−1盐处理中SP的比例高于2 dS m−1盐处理,可以采用4 dS m−1盐处理的水来种植藜麦。综上所述,施用NB可有效降低干旱和盐胁迫对藜麦的负面影响,促进藜麦的可持续生产。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effect of Nano Biochar addition and deficit irrigation on growth, physiology and water productivity of quinoa plants under salinity conditions

The combination of NB and reduced the depth of irrigation water could mitigate the negative effects of salinity and drought stresses and improve water productivity (WP) of quinoa. The experiment was carried out in the greenhouse conditions. A two-year study was carried out in a semi-arid area employing a factorial experimental and in the form of a completely randomized design with three replications. The experimental treatments included three levels of salinity (S1: 1 dS m−1, S2: 4 dS m−1, S3: 7 dS m−1), three levels depth of irrigation water (I1: 60%, I2: 80%, I3: 100% of plant water requirement), and three levels of Nano Biochar (NB) (NB1: 0%, NB2: 2%, NB3: 4%). The parameters of leaf area index (LAI), Weight of 1000 seeds (WOS), spike weight (SW), Seed yield (SY) and WP of each pot were carefully measured. Also, the physiological characteristics of the plant, including seed protein (SP), carbohydrate content (CBH), proline (PR) and chlorophyll a and b (CHLa and CHLb) content were measured. The results showed that salinity and drought stress decreased SY 14.1–37.81%, 11.92%–28.96, respectively. However, the NB up to 2% alleviated salinity and drought stress and increased yield by 40.75% and 26.55%, 13.88% and 10.89% in SW, WOS and LAI, respectively. The use of 4% NB reduced the amounts of PR and CHB by 50.16% and 22.62%. The amount of SP increased by reducing the depth of irrigation water to 80% of the water requirement of the plant and using 2% of NB and salinity of 4 dS m−1. Decreasing salinity and decreasing the depth of irrigation water increased WP. The I1NB2S1 treatment had the highest WP (12.51 kg m−3), while the I3NB3S3 treatment had the lowest WP (6.15 kg m−3). The use of the appropriate amount of NB caused the reduction of the negative effects of salinity and drought stress and the improvement of the growth of quinoa compared to the control. Therefore, it is recommended to use for the plant, especially in conditions where the plant is under drought stress, or in greenhouses, in order to reduce the amount of water consumed and improve the growth and yield of the plant. Considering that no significant difference in yield was observed between 2 and 4 dS m−1 salinity treatment and the percentage of SP in 4 dS m−1 salinity was higher than 2 dS m−1, it is possible to use water with 4 dS m−1 salinity for quinoa. Generally, the application of NB could be a suitable solution to reduce the negative effects of drought and salinity stress on quinoa and its sustainable production.

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来源期刊
Environmental and Experimental Botany
Environmental and Experimental Botany 环境科学-环境科学
CiteScore
9.30
自引率
5.30%
发文量
342
审稿时长
26 days
期刊介绍: Environmental and Experimental Botany (EEB) publishes research papers on the physical, chemical, biological, molecular mechanisms and processes involved in the responses of plants to their environment. In addition to research papers, the journal includes review articles. Submission is in agreement with the Editors-in-Chief. The Journal also publishes special issues which are built by invited guest editors and are related to the main themes of EEB. The areas covered by the Journal include: (1) Responses of plants to heavy metals and pollutants (2) Plant/water interactions (salinity, drought, flooding) (3) Responses of plants to radiations ranging from UV-B to infrared (4) Plant/atmosphere relations (ozone, CO2 , temperature) (5) Global change impacts on plant ecophysiology (6) Biotic interactions involving environmental factors.
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