Scientia Agricultura Sinica ›› 2018, Vol. 51 ›› Issue (20): 3909-3919.doi: 10.3864/j.issn.0578-1752.2018.20.009

• TECHNIQUE APPLICATION • Previous Articles     Next Articles

The Effects of One-off Fertilization of Summer Maize in Huang-Huai-Hai Region

Yan YANG1,2, DeShui TAN1, LiHua JIANG1,3(), JianHua GUO4, KeGang SUN5, Yu XU1, Jing SHI1, Mei WANG1, ZhaoHui LIU6()   

  1. 1Institute of Agricultural Resources and Environment, Shandong Academy of Agricultural Sciences/Shandong Province Key Laboratory of Plant Nutrition and Fertilizer, Jinan 250100
    2Key Laboratory of Wastes Matrix Utilization, Ministry of Agriculture, Jinan 250100
    3Scientific Observing and Experimental Station of Arable Land Conservation (Shandong), Ministry of Agriculture, Jinan 250100
    4Beijing Research Center for Information Technology in Agriculture, Beijing Academy of Agriculture and Forestry Sciences, Beijing 100097
    5Institute of Plant Nutrition, Agricultural Resources and Environmental Science, Henan Academy of Agricultural Science/Henan Key Laboratory of Agricultural Eco-Environment, Zhengzhou 450002
    6Shandong Academy of Agricultural Sciences, Jinan 250100
  • Received:2018-01-18 Accepted:2018-06-25 Online:2018-10-16 Published:2018-10-16

Abstract:

【Objective】In order to provide a theoretical basis for the selection of simplified production techniques, to realize the fertilizer reduction and increasing efficiency, saving cost and increasing income in Huang-Huai-Hai region, the effects of one-off fertilization on the yield, nitrogen use efficiency and economic effects of summer maize were studied.【Method】The field experiments of one-off application of controlled release nitrogen fertilizer on maize was carried out in 8 test points selecting from Hebei, Henan and Shandong province from 2015 to 2016, the economic effects of one-off fertilization on summer maize in Huang-Huai-Hai region were studied to verify the feasibility of the nitrogen reduction of one-off fertilization. the one-off fertilization treatments of CRFA (the amount of nitrogen input in controlled release nitrogen fertilizer was equivalent to OPT treatment), CRFA80%N, CRFB80%N and CRFC80%N (with the amount of nitrogen input in controlled release nitrogen fertilizer was 20% reduction) were set to compare with the multiple application of common nitrogen fertilizer (FP treatment and OPT treatment).【Result】(1) Compared with FP treatment, the one-off fertilization had no significant effect on plant height, ear characters, and the average value of 2 years’ yield of summer maize in Huang-Huai-Hai region, even though the N agronomic efficiency (NAE) and N recovery efficiency (NER) had been increased; However, partial factor productivity from applied N (PFPN) of one-off reduced fertilization were significantly improved more than 33.85%. In addition, there were 8.15, 50.65, 50.65 and 50.65 kg N·hm-2 saving of the CRFA, CRFA80%N, CRFB80%N and CRFC80%N treatment in one maize season, respectively. one-off fertilization increased net income more than 927.40 yuan·hm-2. (2) In addition to the CRFA treatment, the NO3--N contents of the remaining treatments of one-off fertilization were significantly lower than FP, and 0-90 cm soil NO3--N content of the treatments of one-off reduced fertilization (CRFA80 % N, CRFB80% N, CRFC80% N) were significantly lower than OPT (P<0.05). 【Conclusion】 one-off fertilization realized the simplified fertilization of summer maize in Huang-Huai-Hai region, increased the nitrogen use efficiency, which could realize the fertilizer reduction and ensuring stable yield at the same time. It was recommended that the fertilization mode of controlled released nitrogen with reducing 20% should be applied to the summer maize production in Huang-Huai-Hai region.

Key words: Huang-Huai-Hai region, summer maize, one-off fertilization, fertilizer reduction, efficiency increasing

Table 1

Soil type and nutrient index of each experimental site"

试验地点
Experimental location
土壤类型
Soil type
pH 有机质
O.M (g·kg-1)
全氮
Total N (g·kg-1)
有效磷
Available P (mg·kg-1)
速效钾
Available K (mg·kg-1)
河北农科院大河试验站
Dahe experimental station, Hebei academy of agricultural science
褐土
Cinnamon soil
8.2 17.41 1.14 44.88 132.60
河南驻马店西平县盆尧镇于营村
Yuying village, Penyao town, Xiping county, Zhumadian, Henan
砂姜黑土
Shajiang black soil
6.1 9.30 0.10 10.60 54.30
河南驻马店农科院农场
Nongkeyuan farm, Zhumadian, Henan
砂姜黑土
Shajiang black soil
6.4 9.40 0.11 11.20 63.40
山东桓台县生态与可持续发展实验站
Experimental station for ecology and sustainable development of Huantai, Shandong
褐土
Cinnamon soil
8.48 18.80 0.41 8.40 86.20
山东临沂市农科院试验站
Experimental station of Linyi academy of agricultural sciences, Shandong
潮土
Fluvo-aquic soil
6.4 11.90 1.28 18.30 135.00
山东章丘龙山试验站
Longshan experimental station of Zhangqiu, Shandong
棕壤
Brown soil
7.8 10.60 1.10 7.90 41.30
山东德州六一农场
Liuyi farm, Dezhou, Shandong
潮土
Fluvo-aquic soil
7.9 12.80 0.45 30.52 99.72
山东德州市农科院科技园
Science and technology park, Dezhou academy of agricultural sciences, Shandong
潮土
Fluvo-aquic soil
7.8 7.20 1.42 25.86 77.24

Table 2

Fertilization of each experimental location"

试验地点
Experimental location
试验处理
Experimental treatment
N
(kg·hm-2)
氮肥基追比
The ration of basic N to topdressing N
P2O5
(kg·hm-2)
K2O
(kg·hm-2)
河北农科院大河试验站
Dahe experimental station, Hebei academy of agricultural science
N0PK 0 - 90 120
FP 150 1﹕0 90 120
OPT 150 1﹕1 90 120
CRFA 150 1﹕0 90 120
CRFA80%N 120 1﹕0 90 120
CRFB80%N 120 1﹕0 90 120
CRFC80%N 120 1﹕0 90 120
河南驻马店西平县盆尧镇于营村
Yuying village, Pengyao town, Xiping county, Zhumadian, Henan
N0PK 0 - 90 120
FP 225 2﹕3 90 120
OPT 180 2﹕3 90 120
CRFA 180 1﹕0 90 120
CRFA80%N 144 1﹕0 90 120
CRFB80%N 144 1﹕0 90 120
CRFC80%N 144 1﹕0 90 120
河南驻马店农科院农场
Nongkeyuan farm, Zhumadian, Henan
N0PK 0 - 90 120
FP 225 2﹕3 90 120
OPT 180 2﹕3 90 120
CRFA 180 1﹕0 90 120
CRFA80%N 144 1﹕0 90 120
CRFB80%N 144 1﹕0 90 120
CRFC80%N 144 1﹕0 90 120
山东桓台县生态与可持续发展实验站
Experimental station for ecology and sustainable development of Huantai, Shandong
N0PK 0 - 120 90
FP 240 2﹕3 120 90
OPT - - - -
CRFA 240 1﹕0 120 90
CRFA80%N 192 1﹕0 120 90
CRFB80%N 192 1﹕0 120 90
CRFC80%N - - - -
山东临沂市农科院试验站
Experimental station of Linyi academy of agricultural sciences, Shandong
N0PK 0 78.75 132.75
FP 262.5 1﹕2 90 90
OPT 230.5 1﹕2 78.75 132.75
CRFA 230.5 1﹕0 78.75 132.75
CRFA80%N 184.5 1﹕0 78.75 132.75
CRFB80%N 184.5 1﹕0 78.75 132.75
CRFC80%N - - - -
山东章丘龙山试验站
Longshan experimental station of Zhangqiu, Shandong
N0PK 0 - 90 120
FP 196 2﹕3 96 96
OPT 240 2﹕3 90 120
CRFA 240 1﹕0 90 120
CRFA80%N 192 1﹕0 90 120
CRFB80%N 192 1﹕0 90 120
CRFC80%N 192 1﹕0 90 120
表2 Continued table 2
试验地点
Experimental location
试验处理
Experimental treatment
N
(kg·hm-2)
氮肥基追比
The ration of basic N to topdressing N
P2O5
(kg·hm-2)
K2O
(kg·hm-2)
山东德州六一农场
Liuyi farm, Dezhou, Shandong
N0PK 0 - 90 120
FP 197.2 1﹕1 60 60
OPT 240 2﹕3 90 120
CRFA 240 1﹕0 90 120
CRFA80%N 192 1﹕0 90 120
CRFB80%N 192 1﹕0 90 120
CRFC80%N 192 1﹕0 90 120
山东德州市农科院科技园
Science and technology park, Dezhou academy of agricultural sciences, Shandong
N0PK 0 105 135
FP 270 2﹕3 45 45
OPT 240 1﹕2 105 135
CRFA 240 1﹕0 105 135
CRFA80%N 192 1﹕0 105 135
CRFB80%N 192 1﹕0 105 135
CRFC80%N 192 1﹕0 105 135

Table 3

Effects of different fertilizer treatments on plant height and ear character of summer maize"

处理
Treatments
株高Plant height (cm) 穗长Ear length (cm) 秃尖长Bare tip length (cm) 穗粗Ear width (cm)
2015 2016 2015 2016 2015 2016 2015 2016
N0PK 188.39b 187.74b 13.80b 13.59b 0.81a 1.14a 4.07b 4.10b
FP 234.45a 234.38a 17.38a 16.56a 0.57a 1.03a 4.66a 4.79a
OPT 229.96a 232.84a 17.45a 16.84a 0.50a 0.93a 4.66a 4.79a
CRFA 232.10a 232.1a 16.81a 16.49a 0.64a 0.90a 4.65a 4.80a
CRFA80%N 228.62a 228.74a 17.11a 16.55a 0.50a 1.00a 4.60a 4.71a
CRFB80%N 231.89a 230.22a 17.11a 16.49a 0.77a 0.89a 4.61a 4.74a
CRFC80%N 221.31a 218.31a 17.17a 16.60a 0.97a 1.25a 4.42ab 4.56ab

Table 4

Effects of different fertilizer treatments on summer maize yield and it’s component"

处理
Treatments
穗粒数
Grains per ear (No.)
百粒重
100 grain weight (g)
平均产量
Average grain yield (t·hm-2)
变异系数
CV
增产率
Increased rate (%)
2015 2016 2015 2016 2015 2016 2015 2016 2015 2016
N0PK 432.03a 397.22a 28.89a 31.42b 6.51b 6.09b 0.29 0.27 - -
FP 506.70a 438.89a 30.43a 34.31a 8.51a 8.36a 0.17 0.21 - -
OPT 496.65a 455.95a 29.52a 34.47a 9.00a 9.18a 0.20 0.25 5.79 9.85
CRFA 505.06a 440.71a 30.63a 33.69ab 9.18a 9.00a 0.19 0.21 7.83 7.99
CRFA80%N 502.31a 446.63a 30.20a 32.84ab 8.79a 8.86a 0.22 0.24 3.28 6.01
CRFB80%N 483.81a 435.41a 30.49a 33.16ab 8.74a 8.55a 0.25 0.24 2.75 2.28
CRFC80%N 465.81a 441.11a 28.93a 32.93ab 8.14ab 8.78a 0.21 0.26 -4.36 5.07

Table 5

Effects of different fertilizer treatments on summer maize yield of different soil types (t·hm-2)"

处理Treatments 棕壤Brown soil 褐土Cinnamon soil 潮土Fluvo-aquic soil 砂姜黑土Shajiang black soil
N0PK 5.91d 5.13d 6.45c 8.95a
FP 7.69b 7.11b 9.35b 9.82a
OPT 6.85c 7.52a 10.44a 10.44a
CRFA 8.67a 7.62a 10.10ab 9.93a
CRFA80%N 8.44a 7.00bc 10.09ab 9.45a
CRFB80%N 8.40a 6.67c 9.82ab 9.58a
CRFC80%N 6.77c 6.92bc 10.44a 9.29a

Table 6

N fertilizer use efficiency of different fertilizer treatments"

处理
Treatments
氮肥农学效率NAE (kg·kg-1) 氮肥表观利用率NER (%) 氮肥偏生产力PFPN (kg·kg-1) 需求量ANA (kg·t-1)
2015 2016 2015 2016 2015 2016 2015 2016
N0PK - - - - - - 17.33b 16.81a
FP 10.66a 9.99a 37.36a 34.91a 39.20c 36.89d 24.05a 20.84a
OPT 14.10a 15.56a 41.59a 39.55a 43.31bc 44.14bcd 22.34a 19.15a
CRFA 13.01a 14.31a 41.24a 42.73a 43.42bc 42.58cd 22.48a 19.89a
CRFA80%N 16.11a 16.65a 39.75a 37.91a 51.80a 51.99ab 21.88a 18.23a
CRFB80%N 15.81a 14.99a 42.18a 37.08a 51.46a 50.33abc 22.90a 18.98a
CRFC80%N 15.34a 16.63a 40.72a 38.95a 50.00ab 53.66a 24.04a 18.55a

Fig. 1

Effect of different fertilizer treatments on soil NO3--N content in 0-90 cm"

Table 7

Economic analysis of different treatments (yuan/hm2)"

处理
Treatments
两年平均产量
Average yield (kg·hm-2)
产值
Output value
(yuan/hm2)
人工费[5]
Labour cost
(yuan/hm2)
氮肥成本
N cost
(yuan/hm2)
收益
Profit
(yuan/hm2)
增收
Net income
(yuan/hm2)
N0PK 6235.94 9977.50 0 - 9977.50 -
FP 8329.90 13327.85 900 862.99 11564.86 -
OPT 9026.16 14441.86 900 815.79 12726.07 1161.21
CRFA 9028.08 14444.92 0 1107.45 13337.47 1772.61
CRFA80%N 8749.53 13999.26 0 886.03 13113.23 1548.37
CRFB80%N 8591.03 13745.65 0 1033.98 12711.67 1146.81
CRFC80%N 8362.19 13379.50 0 887.24 12492.26 927.40
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