Optimum nitrogen improved stem breaking resistance of intercropped soybean by modifying the stem anatomical structure and lignin metabolism

间作 木质素 栽培 氮气 植物 谷氨酸合酶 生物 化学 农学 生物化学 有机化学 谷氨酰胺合成酶 氨基酸 谷氨酰胺
作者
Ali Raza,Muhammad Ahsan Asghar,Hafiz Hassan Javed,Abd Ullah,Bin Cheng,Mei Xu,Wenyan Wang,Chunyan Liu,Altafur Rahman,Tauseef Iqbal,Khansa Saleem,Weiguo Liu,Wenyu Yang
出处
期刊:Plant Physiology and Biochemistry [Elsevier]
卷期号:199: 107720-107720 被引量:10
标识
DOI:10.1016/j.plaphy.2023.107720
摘要

Excessive use of nitrogen fertilizers enhanced the stem lodging, leading to serious threats to environmental sustainability. As the maize-soybean intercropping system is eco-friendly, however, soybean micro-climate hinders soybean growth and caused lodging. Since the relationship between nitrogen and lodging resistance under the intercropping system is not widely studied. Therefore, a pot experiment was conducted with the application of different nitrogen concentrations referring to low nitrogen (LN) = 0 mg/kg, optimum nitrogen (OpN) = 100 mg/kg, and high nitrogen (HN) = 300 mg/kg. To evaluate the optimum nitrogen fertilization under the maize-soybean intercropping system, two soybean cultivars were selected Tianlong 1 (TL-1), (lodging resistant) and Chuandou 16 (CD-16), (lodging susceptible). The results revealed that under the intercropping system, the OpN concentration significantly improved the lodging resistance of soybean cultivars by reducing the plant height of TL-1 and CD-16 by 4 and 28% as compared to LN, respectively. Following OpN, the lodging resistance index for CD-16 was also increased by 67% and 59% under the respective cropping systems. In addition, we found that OpN concentration prompted the lignin biosynthesis by stimulating the enzymatic activities of lignin biosynthetic enzymes (PAL, 4CL, CAD, and POD), which was reflected at the transcriptional levels (GmPAL, GmPOD, GmCAD, Gm4CL), too. Henceforth, we proposed that optimum nitrogen fertilization boosts soybean stem lodging resistance by modulating the lignin metabolism in the maize-soybean intercropping system.
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