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首页> 外文期刊>International Journal of Agriculture and Biology >Potential of Zinc Solubilizing Bacillus Strains to Improve Growth, Yield, and Quality of Maize (Zea mays)
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Potential of Zinc Solubilizing Bacillus Strains to Improve Growth, Yield, and Quality of Maize (Zea mays)

机译:增升芽孢杆菌菌株的潜力提高玉米生长,产率和质量(Zea Mays)

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Zinc (Zn) deficiency in major food crops has been considered as an important factor affecting crop production and subsequently the human health. The application of Zn solubilizing bacteria could be a sustainable agronomic approach to increase the soil available Zn. The present field study was conducted at two different sites (Farmers’ fields at Bahawalpur, Punjab, Pakistan) to evaluate the biofortification potential of four Zn solubilizing Bacillus strains viz., Bacillus spp. ZM20, Bacillus aryabhattai ZM31, B. subtilis ZM63, and B. aryabhattai S10, alone as well as in different combination. Separate as well as combinations of Zn solubilizing Bacillus strains, significantly, improved the plant growth, yield and grain nutrient concentrations at both experimental sites. However, more increase in maize growth, yield and biofortified Zn and iron (Fe) concentration in grains were obtained due to co-inoculated combinations. Co-inoculation with B. aryabhattai S10 and B. subtilis ZM63 had the maximum Fe concentration (56.5 mg kg -1 ) in grains with an increase of 34% at Site-I compared to respective un-inoculated control. While the maximum increase in Zn concentration in maize grains (23% over respective un-inoculated control at Site-II) was recorded due to combined use of B. aryabhattai ZM31 and B. subtilis ZM63. These results suggested that co-inoculation with Zn solubilizing Bacillus strains expressed synergistic effects to increase nutrients acquisition and to promote growth and yield of maize. It is recommended to use the consortia of B. aryabhattai ZM31 and B. subtilis ZM63 as potential bio-inoculants for Zn biofortification of maize under nutrient-deficient soil conditions.
机译:主要粮食作物的锌(Zn)缺乏被认为是影响作物生产的重要因素,随后是人类健康。 Zn增溶细菌的应用可能是增加土壤可用Zn的可持续农艺方法。本田间研究是在两种不同的位点(Bahawalpur,Punjab,巴基斯坦的农民领域)进行,以评估四个Zn溶解芽孢杆菌菌株的生物侵蚀潜力。,Bacillus SPP。 ZM20,芽孢杆菌Aryabhattai ZM31,B.枯草芽孢杆菌ZM63和B. Aryabhattai S10,单独和不同的组合。单独的以及Zn溶解杆菌菌株的组合,显着改善了两种实验部位的植物生长,产量和籽粒营养浓度。然而,由于共接种组合,获得玉米生长,玉米生长,产率和生物化Zn和铁(Fe)浓度的增加。与B.Aryabhattai S10和B.枯草芽孢杆菌ZM63的共同诱导在晶粒中具有最高Fe浓度(56.5mg kg -1),其在粒子下增加34%-1与各自的未接种对照相比。虽然由于B.Aryabhattai ZM31和B.枯草芽孢杆菌ZM63,因此记录了玉米晶粒中玉米颗粒中Zn浓度的最大浓度(23%在Site-II上的同等地接种的对照中)。这些结果表明,与Zn溶解的杆菌菌株的共同接种表达了增加营养物质的协同作用,促进玉米的生长和产量。建议使用B.Aryabhattai ZM31和B.枯草芽孢杆菌ZM63的联盟作为营养缺乏土壤条件下玉米生物化的潜在生物接种剂。

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