Scientia Agricultura Sinica ›› 2022, Vol. 55 ›› Issue (18): 3501-3515.doi: 10.3864/j.issn.0578-1752.2022.18.003

• TILLAGE & CULTIVATION·PHYSIOLOGY & BIOCHEMISTRY·AGRICULTURE INFORMATION TECHNOLOGY • Previous Articles     Next Articles

Effects of Multiple Cropping Green Manure After Wheat Harvest and Nitrogen Application Levels on Wheat Photosynthetic Performance and Yield in Arid Irrigated Areas

BiJiao MA(),ZhiWen GOU,Wen YIN(),AiZhong YU(),ZhiLong FAN,FaLong HU,Cai ZHAO,Qiang CHAI   

  1. State Key Laboratory of Arid Land Crop Science/College of Agronomy, Gansu Agricultural University, Lanzhou 730070
  • Received:2021-11-27 Accepted:2022-03-02 Online:2022-09-16 Published:2022-09-22
  • Contact: YIN Wen,YU AiZhong E-mail:2563730403@qq.com;yinwen@gsau.edu.cn;yuaizh@gsau.edu.cn

Abstract:

【Objective】The aim of this study was to explore the effects of returning green manure to soil on wheat yield under different nitrogen application levels in oasis irrigation areas, which had important guiding significance for establishing a green wheat production pattern based on the combined application of green manure and chemical nitrogen fertilizer. 【Method】 From 2018 to 2020, a split plot experiment was conducted in the Hexi oasis irrigation areas of Gansu province. The main plot was set up with two planting patterns of sole wheat (W) and multiple cropping hairy vetch after wheat harvest (W-G), and the sub-plot had 5 nitrogen levels, including no nitrogen application (N0), 55% N (N1), 70% N (N2), 85% N (N3), 100% N (N4), among which 100% N was the conventional nitrogen application rate of 180 kg·hm-2. The leaf area index (LAI), leaf area duration (LAD), net assimilation rate (NAR) and grain yield at maturity stage and its constituent factors were measured during the whole growth period of wheat, in order to provide the basis for optimizing planting pattern and nitrogen application level in this area.【Result】Compared with W, W-G significantly increased the mean LAI and LAD during the whole growth period of wheat by 9.5%-19.7% and 9.7%-21.0%, respectively; The moderate reduction of nitrogen fertilizer was beneficial to increase the mean LAI and LAD of wheat, with N3 being the most prominent. Compared with W-N3 and W-N4, W-G-N3 increased mean LAI by 4.1%-15.4% and 8.8%-17.5%, respectively, and the total LAD increased by 4.6%-9.2% and 16.8%-18.8%, respectively. W-G reduced the mean NAR of the whole growth period of wheat, which was 17.7% and 17.8% lower than that of sole wheat, respectively. Compared with W-N3 and W-N4, W-G-N3 reduced mean NAR by 16.4%-17.5% and 26.5%-40.1%, respectively. Planting over-pressing hairy vetch after wheat harvest and moderately reducing nitrogen fertilizer increased the grain yield of wheat. Compared with W-N3 and W-N4, W-G-N3increased the yield by 6.9%-16.7% and 7.9%-13.6%, respectively. Grey correlation analysis and correlation analysis showed that multiple planting hairy vetch after wheat harvest and appropriate nitrogen fertilizer yield high crop yields were mainly due to the synergistic increase of mean LAI, total LAD and yield components.【Conclusion】The treatment of multiple cropping hairy vetch after wheat harvest combined with 85% N fertilizer treatment promoted the growth of vegetative organs, which was conducive to the establishment, expansion and enrichment of the grain bank, thereby obtaining high yields. Therefore, W-G-N3 was an ideal planting pattern and nitrogen application level for optimizing wheat yield performance indicators in oasis irrigation areas to obtain high yields.

Key words: multiple cropping, green manure, nitrogen level, spring wheat, yield capability

Fig. 1

Dynamic of precipitation and average air temperature in the study area from 2019 to 2020"

Table 1

Wheat and green manure sowing, harvesting and pressing dates in different years"

试验材料
Test material
年份
Year
播种日期
Sowing date (M-D)
收获(翻压)日期
Harvest (turned down) date (M-D)
春小麦
Spring wheat
2018 03-12 07-13
2019 03-18 07-18
2020 03-20 07-23
毛叶苕子
Hairy vetch
2018 07-29 10-22
2019 08-01 10-19
2020 07-31 10-21

Table 2

The mean leaf area index, total leaf area duration and mean net assimilation rate of wheat under different cropping patterns and N fertilizer levels during the whole of growth period of wheat"

年份
Year
种植模式
Cropping pattern
施氮水平
N level
平均叶面积指数
Mean leaf area index
总光合势
Total leaf area duration
平均净同化率
Mean net assimilation rate (g·m-2·d-1)
2019 W-G N0 2.42f 194.60f 10.65cd
N1 2.79d 223.87d 9.52e
N2 3.00c 240.89c 8.73d
N3 3.57a 285.42a 6.79h
N4 3.50ab 278.23ab 8.19g
W N0 2.06g 166.88g 12.57a
N1 2.51ef 201.25ef 10.39d
N2 2.67de 213.06de 10.88c
N3 3.43ab 272.87ab 8.23g
N4 3.28b 261.30b 11.33b
2020 W-G N0 2.34e 196.97e 9.16e
N1 2.70d 228.70d 9.08c
N2 2.82c 236.37c 8.67c
N3 3.29a 274.97a 7.49d
N4 3.20b 266.40b 8.70c
W N0 1.80g 152.15g 12.18a
N1 2.22f 184.33f 10.49b
N2 2.32e 191.18ef 10.56b
N3 2.85c 235.39cd 8.96c
N4 2.80c 231.41cd 10.19b
显著性(P值) Significance (P value)
种植模式 Cropping pattern (C) ** ** **
施氮水平 N application rate (N) ** ** **
种植模式×施氮水平C×N NS NS *

Fig. 2

Dynamic changes of leaf area index of wheat under different cropping patterns and N fertilizer levels W-G: Multiple cropping hairy vetch after wheat harvest; W: Sole wheat; N0: No nitrogen application; N1, N2, N3, N4 treatments are 55% N, 70% N, 85% N, 100% N, in which 100% N is conventional nitrogen application rate was 180 kg·hm-2. The same as below"

Fig. 3

Leaf area duration of wheat in each growth stage under different cropping patterns and N fertilizer levels The determining dates on wheat plants sampling were 28 April, 13 May, 28 May, 12 June, 27 June, and 12 July in 2019, and 27 April, 12 May, 27 May, 11 June, 26 June, and 11 July in 2020. The corresponding growing stages of wheat were seeding, jointing, booting, flowering, filling, harvesting stage, respectively. The same as below"

Fig. 4

Dynamic changes of net assimilation rate of wheat under different cropping patterns and N fertilizer levels"

Table 3

Grain yield and yield components of wheat under different cropping patterns and N fertilizer levels"

年份
Year
种植模式
Cropping pattern
施氮水平
N level
籽粒产量
Grain yield
(kg·hm-2)
收获指数
Harvest index
产量构成 Yield component
单位面积穗数
Spike number per area (×104·hm-2)
穗粒数
Kernel number
per spike
千粒重
Thousand kernel weight (g)
2019 W-G N0 7363.0cd 0.36b 817.4b 27.9ef 48.2fg
N1 7455.0c 0.35b 827.8b 30.8de 49.9de
N2 8132.3b 0.35b 884.8b 32.1cd 51.4c
N3 9186.5a 0.42a 895.8a 40.5a 56.3a
N4 8810.2ab 0.41a 903.4a 35.8bc 54.7b
W N0 5922.5e 0.28d 766.2c 25.1f 47.0g
N1 6722.1d 0.29cd 774.9c 31.1de 49.4ef
N2 7223.7cd 0.32bc 871.4c 34.1cd 48.0g
N3 8591.7ab 0.33bc 882.6a 38.8ab 51.2cd
N4 8511.6ab 0.36b 892.6a 35.0bcd 54.3b
2020 W-G N0 4319.6f 0.35d 814.3d 25.9g 48.7e
N1 6632.3d 0.39c 825.9d 35.0d 50.3d
N2 7206.2c 0.40bc 885.4bc 36.8b 51.2c
N3 8408.2a 0.43a 894.5ab 40.9a 55.6a
N4 8005.2a 0.40bc 905.3a 37.0b 52.8b
W N0 4096.5f 0.36d 757.5f 23.0h 46.8f
N1 6124.5e 0.39c 775.9e 28.4f 48.2e
N2 6194.6e 0.40bc 876.5c 32.1e 47.1f
N3 7205.0c 0.41ab 885.5bc 37.3b 49.0e
N4 7400.7b 0.40bc 901.5a 35.9c 52.0c
显著性(P值)Significance (P value)
种植模式 Cropping pattern (C) * ** ** ** **
施氮水平 N application rate (N) ** ** ** ** **
种植模式×施氮水平C×N NS NS ** NS **

Table 4

The incidence matrix and ranking among grain yield and yield components of wheat under different cropping patterns and N fertilizer levels"

产量性能指标
Parameter of yield capability
籽粒产量
Grain yield
排序
Ranking
平均叶面积指数 Mean leaf area index 0.894 1
平均净同化率 Mean net assimilation rate 0.700 7
总光合势 Total leaf area duration 0.878 2
单位面积穗数 Kernel number per area 0.818 5
穗粒数 Kernel number per spike 0.836 3
千粒重 Thousand kernel weight 0.821 4
收获指数 Harvest index 0.762 6

Fig. 5

The correlation analysis among grain yield and yield components of wheat under different cropping patterns and N fertilizer levels KN: Kernel number per area; KNS: Kernel number per spike; TKW: Thousand kernel weight; LAD: Total leaf area duration; MNAR: Mean net assimilation rate; MLAI: Mean leaf area index; HI: Harvest index; GY: Grain yield. ** and * indicate significant differences at 0.01 and 0.05 levels, respectively"

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