Assessing the Productivity and Water Use Efficiency of Two Summer Mungbean (Vigna radiata L.) Genotypes Grown Under Drought Stress Condition

被引:0
作者
Mohammad Rafiqul Islam
Akbar Hossain
Jamil Hossain
Mohammad Ashraful Alam
Masuma Akhter
Ayman EL Sabagh
Annika Jahan Aonti
Mohammad Sohidul Islam
机构
[1] Bangladesh Agricultural Research Institute (BARI),Agronomy Division, Regional Agricultural Research Station
[2] Bangladesh Wheat and Maize Research Institute,Division of Soil Science
[3] Bangladesh Agricultural Research Institute (BARI),Pulses Research Centre
[4] Bangladesh Agricultural Research Institute (BARI),Plant Breeding Division, Spices Research Centre
[5] Bangladesh Wheat and Maize Research Institute,Genetic Resources and Seed Division
[6] Kafrelsheikh University,Department of Agronomy, Faculty of Agriculture
[7] Hajee Mohammad Danesh Science and Technology University,Department of Agronomy
来源
Journal of Crop Health | 2024年 / 76卷
关键词
Mungbean; Water stress; Water use efficiency; Crop growth rate; Leaf area index;
D O I
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中图分类号
学科分类号
摘要
Mungbean is a rich source of edible protein and contributes significantly adding the atmospheric N2 to the soil. During the cultivation of mungbean, drought is one of the major constraints which negatively impact on the production of mungbean. Therefore, it is important to find eco-friendly management options to overcome drought stress. The current study was undertaken to find out the yield response of mungbean to irrigation at different pheno-phases in terms of crop growth rate (CGR), leaf area index (LAI), root growth, harvest index and water use efficiency (WUE). Treatments were two mungbean genotypes, namely BMX-08010‑2 (drought stress tolerant) and BARI Mung‑1 (drought stress sensitive) and five different irrigation schedules viz., i) No irrigation (drought stress): I0; ii) Irrigation at 1st trifoliate leaf stage (20 DAS): I1; iii) Irrigation at flowering stage (35 DAS): I2; iv) Irrigation at 1st trifoliate leaf stage (20 DAS) + flowering stage (35 DAS): I3 and v) Irrigation at 1st trifoliate leaf stage (20 DAS) + flowering stage (35 DAS) + pod-filing stage (45 DAS): I4. The study was arranged in a split-plot design distributing irrigation levels to the main plots and genotypes to the sub-plots with three replications under a rain-out shelter Calculated (based on the existing soil moisture content) irrigation water was applied manually in each treatment plot up to the field capacity level. Drought stress (no irrigation) reduced the growth and yield and shortened the life cycle. The BMX-08010‑2 genotype maintains higher performance under drought stress indicated as a drought tolerance genotype. The treatments which got two or three stages of irrigation (I3 or I4) had considerably more yield than those which got only one-stage irrigation (I1 and I2). The flowering stage (I3) was the most sensitive growth stage reducing about 18% of yield compared to the I4 treatment. It is exhibited that, if irrigation sources are available, at least two irrigation at trifoliate leaf stage (I2 at 20 DAS) and flowering stages (I3 at 35 DAS) should be ensured for obtaining higher yield. The harvest index can be increased by increasing the number of irrigation stages irrespective of irrigation at any specific stage. A strong association was also found among the growth and yield traits with the seed yield of mungbean due to different irrigation scheduling. Therefore, the parameters can be used as an effective marker to identify and develop superior genotypes suited to drought-prone environments.
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页码:499 / 516
页数:17
相关论文
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