Scientia Agricultura Sinica ›› 2023, Vol. 56 ›› Issue (7): 1283-1294.doi: 10.3864/j.issn.0578-1752.2023.07.007

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

Effects of Returning Green Manure to Field Combined with Reducing Nitrogen Application on the Dry Matter Accumulation, Distribution and Yield of Maize

WANG PengFei(), YU AiZhong(), WANG YuLong, SU XiangXiang, LI Yue, LÜ HanQiang, CHAI Jian, YANG HongWei   

  1. College of Agronomy, Gansu Agricultural University/Gansu Provincial Key Laboratory of Arid Land Crop Science, Lanzhou 730070
  • Received:2022-07-26 Accepted:2022-10-08 Online:2023-04-01 Published:2023-04-03

Abstract:

【Objective】 In order to provide the theoretical basis for the development of high-yield and high-efficiency maize production technology in this area, the characteristics of dry matter accumulation and distribution and the response of grain yield to the return of green manure to the field combined with nitrogen reduction were analyzed in the oasis irrigation area. 【Method】 The field experiment was carried out in Hexi Oasis Irrigation Area, Gansu Province from 2020 to 2021. The combination of green manure returning to the field and different nitrogen reduction ratios (green manure combined with nitrogen reduction 0%, N100; green manure combined with nitrogen reduction 10%, N90; green manure combined with nitrogen reduction 20%, N80; green manure combined with nitrogen reduction 30%, N70; green manure combined with nitrogen reduction 40%, N60) on the distribution of dry matter accumulation in maize and impact on production. 【Result】 After the jointing stage, the aboveground dry matter accumulation under N80 and N90 treatments was significantly higher than that of N70 and N60 treatments. At the mature stage, the aboveground dry matter accumulation under N80 increased by 13.3%-23.2% compared with N70 and N60 treatments, and N90 was higher than N70 and N60 treatments. Compared with the N70 and N60 treatments, the maximum growth rate and average growth rate of the aboveground dry matter under N80 were significantly increased by 9.5%-21.2% and 13.0%-23.2%, respectively; N90 significantly increased by 10.2%-21.8% and 13.9%-23.7% compared with N70 and N60 treatments, both of which effectively delayed the decrease of aboveground dry matter accumulation rate of maize from silking stage to grain filling stage. Compared with N70 and N60, the maximum growth rate of dry matter under N80 treatment was 2.44 d and 2.77 d earlier than that under N70 and N60, respectively, and N90 was 1.92 d and 2.3 d earlier than the N70 and N60 treatments, respectively. N80 and N90 promoted the distribution of dry matter in the ears of maize, and effectively increased the contribution rate of dry matter transport before flowering to grain dry matter accumulation. At the same time, the post-flowering dry matter accumulation under N80 increased by 12.2% and 20.4% compared with N70 and N60 treatments, respectively. Compared with the N70 and N60 treatments, the post-flowering dry matter accumulation under N90 was increased by 12.4% and 20.5%, respectively, and the difference was significant. There was no significant difference in maize grain yield among N100, N90, and N80 treatments, but the maize grain yield under N80 increased by 16.8% and 27.4%, respectively. Compared with N70 and N60 treatments, the yield under N90 treatment increased by 17.4% and 27.9%, respectively, with significant differences. 【Conclusion】 The return of leguminous green manure to the field combined with 10% and 20% nitrogen reduction treatments increased the aboveground dry matter accumulation and accumulation rate of maize, promoted the distribution of dry matter in the ears at maturity, and improved the pre-flowering dry matter transport on grain dry matter. The cumulative contribution rate could be used as the recommended nitrogen application method for high maize yield in oasis irrigated areas.

Key words: green manure, nitrogen fertilizer, dry matter accumulation, dry matter distribution, yield

Table 1

Fertilizer regimes of different treatments in the experiment"

代码
Code
处理
Treatment
基肥
Base fertilizer (kg·hm-2)
追肥 Top application (kg·hm-2) 总施氮量
Total N application rate (kg·hm-2)
大喇叭口期
Flare opening stage
花后15 d
15 days after flowering
N100 绿肥还田结合减量施氮0%
Green manure combined with nitrogen reduction 0%
108 180 72 360
N90 绿肥还田结合减量施氮10%
Green manure combined with nitrogen reduction 10%
98 162 64 324
N80 绿肥还田结合减量施氮20%
Green manure combined with nitrogen reduction 20%
86 144 58 288
N70 绿肥还田结合减量施氮30%
Green manure combined with nitrogen reduction 30%
76 126 50 252
N60 绿肥还田结合减量施氮40%
Green manure combined with nitrogen reduction 40%
64 108 44 216

Fig. 1

Dynamics of aboveground dry matter accumulation of maize under different treatments The N reduction rates in treatments N100, N90, N80, N70 and N60 were 0%, 10%, 20%, 30% and 40% of the conventional N rate 360 kg·hm-2; The error bar indicates standard error (n=5). The same as below"

Fig. 2

Dynamics of aboveground dry matter accumulation rate under maize in different treatments"

Table 2

Logistic equation analysis on aboveground dry matter accumulation of maize under different treatments"

年份
Year
处理
Treatment
回归方程
Regression equation
R2 最大增长速率
出现天数
The days of MIR (d)
最大增长速率
Maximum increase rate
(kg·hm-2·d-1)
平均增长速率
Average increase rate
(kg·hm-2·d-1)
2020 N100 Y=39989.9/(1+e6.1750-0.0690t) 0.998 89.49a 689.83a 265.94a
N90 Y=39737.5/(1+e6.2414-0.0702t) 0.998 88.91a 697.39a 264.91a
N80 Y=39806.5/(1+e6.2334-0.0696t) 0.998 89.56a 692.63a 265.65a
N70 Y=34128.6/(1+e6.3614-0.0728t) 0.999 87.38b 621.14b 228.03b
N60 Y=30737.3/(1+e6.2426-0.0718t) 0.999 86.94b 551.73c 203.84c
2021 N100 Y=38486.4/(1+e6.1802-0.0694t) 0.998 89.05a 667.74a 254.31a
N90 Y=38601.9/(1+e6.2674-0.0706t) 0.998 88.77a 681.32a 256.94a
N80 Y=38088.6/(1+e6.3300-0.0710t) 0.998 89.15a 676.07a 253.10a
N70 Y=33192.7/(1+e6.4324-0.0744t) 0.998 86.46b 617.38b 221.55b
N60 Y=29068.0/(1+e6.2608-0.0726t) 0.998 86.24b 527.58c 194.58c

Fig. 3

Dry matter distribution of maize in mature stage under different treatments Different lowercase letters indicate significant differences among different treatments at 0.05 probability level. The same as below"

Table 3

Dry matter transfer before and after flowering and their contribution to grain dry matter as affected under different treatments"

年份
Year
处理
Treatment
花前 Pre-anthesis 花后 Post anthesis
DMR (kg·hm-2) DMRE (%) DMRCG (%) DMA (kg·hm-2) DMAC (%)
2020 N100 1188.12a 6.47a 7.51a 17938.43a 92.49c
N90 1263.45a 6.77a 8.18a 17824.92a 91.82c
N80 1224.29a 6.55a 7.94a 17873.09a 92.06c
N70 711.20b 4.33b 5.55b 15381.10b 94.45b
N60 507.56c 3.46c 4.45c 14249.34c 95.55a
2021 N100 1037.78a 5.47a 7.15a 17304.38a 92.85c
N90 1082.25a 5.53a 7.38a 16662.06a 92.62c
N80 1046.45a 5.43a 7.23a 16554.05a 92.77c
N70 652.29b 3.85b 5.40b 14823.77b 94.60b
N60 429.37c 2.91c 4.16c 13174.98c 95.84a

Fig. 4

Grain yield of maize under different treatments"

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