Scientia Agricultura Sinica ›› 2018, Vol. 51 ›› Issue (18): 3455-3469.doi: 10.3864/j.issn.0578-1752.2018.18.003

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

A Study on the Relationship Between Water Consumption and Nitrogen Absorption, Utilization Under Sub-Soiling During the Fallow Period Plus Mulched-Sowing in Humid and Dry Years of Dryland Wheat

NianNian LI(), Min SUN(), ZhiQiang GAO, Juan ZHANG, HuiYu ZHANG, YanFei LIANG, QingShan YANG, ZhenPing YANG, Yan DENG   

  1. College of Agriculture, Shanxi Agricultural University, Taigu 030801, Shanxi
  • Received:2018-06-22 Accepted:2018-08-06 Online:2018-09-16 Published:2018-09-16

Abstract:

【Objective】The objective of these experiments was to clarify the relationship among soil water variety, nitrogen utilization and yield, and to explore emergency measures of tillage and mulched-sowing technique. 【Method】Field experiments were carried out from 2011 to 2016 in Wenxi, Shanxi province, with sub-soiling (SS) or no-tillage (NT) as the main plots and three sowing methods (Film-mulched soil hole sowing, FSH; Film-mulched sowing, FM; Drill sowing, DS) as the subplots, classification of annual type according to precipitation, in order to assess the effects of mulched-sowing under sub-soiling on relationship with water consumed and accumulation absorption and utilization in dry wheat.【Result】Under difference precipitation, the water consumption amount and its ratio was declined from sowing stage to jointing stage, but the water consumption amount and its ratio from jointing stage to mature was increased, thus water consumption during growth period was increased under sub-soiling and mulched-sowing; Nitrogen accumulation at every growth stage also was increased, especially ratio of nitrogen accumulation from jointing stage to anthesis; Pre-anthesis nitrogen translocation amount in various organs and contribution of translocation to grain was increased; Grain yield was improved significantly by 16%-30% under sub-soiling and 13%-28% under mulched-sowing, water use efficiency was improved, and nitrogen uptake efficiency and nitrogen productive efficiency was improved significantly. Difference annual precipitation and sub-soiling affected water consumption, nitrogen absorption, utilization, grain yield, water use efficiency, and nitrogen use efficiency of FHS and FM. In humid year under SS, water consumption during growth was increased, nitrogen accumulation from jointing stage to anthesis stage and contribution of leaf nitrogen translocation to grain was increased significantly, and grain yield, nitrogen uptake efficiency and nitrogen productive efficiency was increased significantly under FSH, compared with FM. However, in dry year and humid under no sub-soiling, water consumption during growth was no significantly between FSH and FM, pre-anthesis nitrogen translocation amount in various organs, contribution of stem+sheath nitrogen translocation to grain, and nitrogen accumulation amount after anthesis, finally grain yield were increased, and nitrogen uptake efficiency was increased significantly improved under FM compared with FSH. In addition, in humid year, pre-anthesis nitrogen translocation amount in various organs and nitrogen accumulation amount after anthesis was more significantly correlated with 0-120 cm water consumption from sowing stage to jointing stage, 120-300 cm water consumption at jointing stage to anthesis, 180-300 cm water consumption at anthesis to mature; In dry year, pre-anthesis nitrogen translocation amount in various organs and nitrogen accumulation amount after anthesis was more significantly correlated with 0-100 cm water consumption at sowing stage to jointing stage, 120-240 cm water consumption at jointing stage to anthesis, and 120-300 cm water consumption at anthesis to mature.【Conclusion】In conclusion, sub-soiling during the fallow period, mulched-sowing was not only increased water consumption, but also beneficial to nitrogen accumulation during growth period, ultimately significant improved yield, water use efficiency, and nitrogen use efficiency. Film-mulched soil hole sowing in humid year and film-mulched sowing in dry year increased yield and efficiency of dryland wheat under sub-soiling during the fallow period.

Key words: dryland wheat, sub-soiling during the fallow period, mulched-sowing, water consumption, nitrogen utilization, yield

Table 1

Precipitation at the experimental site in Wenxi (mm)"

年份
Year
休闲期
Fallow period
播种—越冬
SS-WS
越冬—拔节
WS-JS
拔节—开花
JS-AS
开花—成熟
AS-MS
总计
Total
2002-2016 281.8±14.7 58.8±12.4 28.5±6.8 47.9±10.3 61.0±11.7 483.4±14.6
2009-2010 173.1 64.5 12.6 33.9 50.9 335.0
2010-2011 401.5 27.1 19.1 22.2 64.8 534.7
2011-2012 459.9 123.6 28.7 19.1 30.6 661.9
2012-2013 188.4 32.8 22.4 12.0 100.1 355.7
2013-2014 288.2 43.7 23.1 104.0 30.7 489.7
2014-2015 365.6 21.5 50.8 61.2 17.6 516.7
2015-2016 94.7 69.0 11.0 57.1 122.8 386.8

Table 2

Soil foundation fertility in experimental location"

年份
Year
有机质
Organic matter content (g·kg-1)
全氮
Total nitrogen content (g·kg-1)
碱解氮
Alkaline hydrolysis nitrogen(mg·kg-1)
速效磷
Available phosphorus (mg·kg-1)
2011—2012 8.72 0.65 40.16 19.87
2012—2013 11.88 0.72 38.62 14.61
2015—2016 9.27 0.86 41.31 10.25

Fig. 1

Effect of subsoiling during fallow period and sowing-mulched on water consumption of soil profile in dryland wheat Different letters indicate significant differences among treatments at 0.05 level. The same as below"

Table 3

Effect of subsoiling during fallow period and sowing-mulched on water consumption amounts and its ratio at different growth stage in dryland wheat"

年份
Year
耕作
Tillage
播种方式
Sowing
method
播种—拔节STJ 拔节—开花JTA 开花—成熟ATM
耗水量
Amount (mm)
所占比例
Ratio (%)
耗水量
Amount (mm)
所占比例
Ratio (%)
耗水量
Amount(mm)
所占比例
Ratio (%)
丰水年
Humid year
(2011-2012)
SS FSH 120.50b 25.39d 193.31a 40.74a 160.70a 33.87a
FM 119.03b 25.97d 184.75b 40.31a 154.54b 33.72a
DS 126.68a 30.04b 165.50c 39.25b 139.47d 30.71b
NT FSH 121.86b 29.88b 158.09d 38.77b 140.86d 31.35ab
FM 117.84b 27.83c 166.14c 39.23b 149.04c 32.94ab
DS 130.70a 33.48a 145.33e 37.22c 124.40e 29.30b
欠水年
Dry year (2012-2013)
SS FSH 90.95bc 25.32c 148.04b 41.21a 120.23b 33.47b
FM 82.93c 22.34d 153.93a 41.47a 134.35a 36.19a
DS 104.35a 30.79b 135.34b 39.15b 105.98c 30.06c
NT FSH 88.93bc 29.64b 117.78c 39.25b 93.33d 31.11c
FM 84.19c 26.75c 124.79b 39.65b 105.78c 33.61b
DS 95.48ab 33.42a 109.12d 37.39c 88.92e 29.19d
欠水年
Dry year (2015-2016)
SS FSH 100.92ab 27.23c 142.03b 38.32a 123.98b 34.45b
FM 99.64b 24.40d 153.78a 39.20a 138.87a 36.40a
DS 102.54a 30.11b 127.31d 37.39b 110.65c 32.50c
NT FSH 101.63ab 30.70b 121.80d 36.20b 107.56d 32.50c
FM 99.05b 27.57c 131.55c 37.94b 116.13c 34.49b
DS 102.50a 34.82a 106.98e 34.30c 93.57e 30.88d

Table 4

Effect of subsoiling during fallow period and sowing-mulched on nitrogen absorption amount and its ratio at different growth stages in dryland wheat"

年份
Year
耕作
Tillage
播种方式
Sowing method
播种—拔节STJ 拔节—开花JTA 开花—成熟ATM
吸氮量
N absorption
(kg·hm-2)
比例
Ratio
(%)
吸氮量
N absorption (kg·hm-2)
比例
Ratio
(%)
吸氮量
N absorption
(kg·hm-2)
比例
Ratio
(%)
丰水年
Humid year
(2011-2012)
SS FSH 59.43a 28.59bc 112.21a 53.99a 36.19a 17.41d
FM 58.74a 29.85abc 102.30b 51.99ab 35.74a 18.16d
DS 51.59b 30.13ab 86.34c 50.44b 33.26b 19.43c
NT FSH 43.47d 29.15bc 74.60d 50.03b 31.04c 20.82b
FM 47.72c 28.56c 85.49c 51.18ab 33.86b 20.26bc
DS 40.04e 30.79 a 59.58e 45.81c 30.41c 23.40a
欠水年
Dry year
(2012-2013)
SS FSH 36.82a 31.42ab 57.06b 48.68b 23.32a 19.90bc
FM 37.92a 29.43b 66.66a 51.74a 24.27a 18.83c
DS 32.86b 32.36a 46.80c 46.09c 21.88b 21.55ab
NT FSH 28.95c 31.88ab 41.89d 46.13c 19.97bc 21.99ab
FM 31.56b 29.05b 55.23b 50.84a 21.85b 20.11bc
DS 26.15d 32.71a 35.28e 44.12d 18.53c 23.17a
欠水年
Dry year (2015-2016)
SS FSH 30.78b 28.11ab 56.23b 51.35a 22.50a 20.54b
FM 33.78a 27.97b 63.77a 52.80a 23.23a 19.23b
DS 29.56bc 29.50a 48.96c 48.87b 21.67b 21.63ab
NT FSH 26.76c 29.21a 45.11d 49.24ab 19.73c 21.54ab
FM 30.32b 28.33ab 54.84b 51.25a 21.86b 20.42b
DS 24.28d 30.10a 37.30e 46.25c 19.08c 23.65a

Table 5

Effect of subsoiling during fallow period and sowing-mulched on accumulated nitrogen translocation from various organs before anthesis and nitrogen accumulation after anthesis in dryland wheat"

年份
Year
耕作
Tillage
播种方式
Sowing method
花前各器官运转量PANT 花后积累
NAAA
叶片Leaf 茎秆+叶鞘Stem+sheath 颖壳+穗轴Glume+spike
运转量
TA (kg·hm-2)
贡献率
CP (%)
运转量
TA (kg·hm-2)
贡献率
CP (%)
运转量
TA (kg·hm-2)
贡献率
CP (%)
运转量
TA (kg·hm-2)
贡献率
CP (%)
丰水年
Humid year
(2011-2012)
SS FSH 35.28a 20.19a 70.43a 40.31ab 32.83a 18.79a 36.19a 20.71f
FM 31.02b 19.07b 67.65b 41.59a 28.27b 17.38a 35.74a 21.97e
DS 24.97c 18.00c 57.14c 41.21a 23.30c 16.80b 33.26b 23.99d
NT FSH 21.64e 18.10c 47.71d 39.90b 19.18d 16.04b 31.04c 25.96b
FM 25.02c 18.40c 56.09c 41.25a 22.91c 16.85b 31.95c 23.50c
DS 17.41f 17.07d 40.30e 39.51b 13.86e 13.59c 30.41c 29.83a
欠水年
Dry year (2012-2013)
SS FSH 17.46b 19.21a 37.11b 40.83b 13.00b 14.30a 23.32a 25.66c
FM 19.07a 19.98a 42.60a 42.39a 14.55a 14.48a 24.27a 24.15d
DS 14.55c 18.85a 30.80c 39.90b 9.98d 12.92b 21.88b 28.33b
NT FSH 12.97d 18.75a 27.93d 40.35b 8.35e 12.05b 19.97bc 28.85b
FM 16.56b 19.36a 35.90b 41.97a 11.22c 13.12b 21.85b 25.55c
DS 10.68e 18.44a 22.35e 38.59c 6.48f 11.18c 18.53c 31.79a
欠水年
Dry year (2015-2016)
SS FSH 17.89b 18.74a 41.70b 43.67b 13.39b 14.03a 22.50a 23.56c
FM 20.76a 18.83a 50.04a 45.37a 16.25a 14.74a 23.23a 21.07d
DS 14.60d 18.54a 31.55d 41.06c 10.93c 13.87b 21.67b 27.52b
NT FSH 13.25d 18.20a 30.33d 41.69c 9.45c 12.99b 19.73bc 27.12b
FM 16.30c 18.47a 37.99c 43.03b 12.14b 13.75b 21.86b 24.76c
DS 11.24e 17.76a 25.18e 39.80d 7.78d 12.29c 19.08c 30.15a

Table 6

Correlation coefficients between soil water consumption in 0-3 m layers and pre-anthesis nitrogen translocation and nitrogen accumulation after anthesis at different growth stage in dryland wheat"

年份
Year
土层
Layer (cm)
播种—拔节STJ 拔节—开花JTA 开花—成熟ATM
叶片
Leaf
茎秆
+叶鞘
Stem
+sheath
颖壳
+穗轴
Glume
+spike
花后
积累
NAAA
叶片
Leaf
茎秆
+叶鞘
Stem
+sheath
颖壳
+穗轴
Glume
+spike
花后
积累
NAAA
叶片
Leaf
茎秆
+叶鞘
Stem
+sheath
颖壳
+穗轴
Glume
+spike
花后
积累
NAAA
丰水年
Humid year
(2011
-2012)
0-20 0.9607** 0.9908** 0.9823** 0.9946** -0.7823 -0.7598 -0.7936 -0.6540 -0.0406 -0.2007 -0.1030 -0.2173
20-40 0.9478** 0.9612** 0.9652** 0.9037** -0.4652 -0.3371 -0.3651 -0.2114 -0.2805 -0.3690 -0.3001 -0.3336
40-60 0.9513** 0.9466** 0.9420** 0.9647** -0.4622 -0.4389 -0.4219 -0.3321 0.0013 -0.0724 0.0075 -0.0377
60-80 0.9601** 0.9930 ** 0.9877** 0.9697** 0.7031 0.6422 0.6930 0.6290 -0.3107 -0.1366 -0.1605 -0.0684
80-100 0.9682** 0.9643 ** 0.9829** 0.9257** 0.7312 0.7798* 0.7535* 0.7049 -0.2980 -0.1567 -0.1711 -0.0908
100-120 0.8527** 0.7596 * 0.7860* 0.7043 0.8077* 0.8286* 0.8170* 0.7432 0.2957 0.4266 0.3915 0.3780
120-140 0.3869 0.2280 0.2914 0.2474 0.9663** 0.9861** 0.9919** 0.9551** 0.4018 0.4954 0.4253 0.4646
140-160 -0.0278 -0.0673 -0.0622 -0.2198 0.9686** 0.9627** 0.9701** 0.9316** 0.6734 0.6885 0.6392 0.6871
160-180 -0.1960 -0.3599 -0.2644 -0.4900 0.9959** 0.9843** 0.9907** 0.9500** 0.8889* 0.9634** 0.9405** 0.9863**
180-200 -0.3985 -0.5354 -0.4987 -0.6467 0.9713** 0.9266** 0.9482** 0.9197** 0.9274** 0.9177** 0.9118** 0.9214**
200-220 -0.5807 -0.6649 -0.6820 -0.6753 0.9440** 0.9263** 0.9239** 0.9119** 0.9450** 0.9854* 0.9619** 0.9795**
220-240 -0.5655 -0.5975 -0.6331 -0.5755 0.9401** 0.9183** 0.9260** 0.9304** 0.9645** 0.9724** 0.9688** 0.9213**
240-260 -0.8650* -0.8096* -0.8606* -0.7975* 0.8622* 0.8718* 0.8700* 0.8357* 0.9771** 0.9846** 0.9761** 0.9686**
260-280 -0.8870** -0.7892* -0.8498* -0.7365* 0.9463** 0.8586* 0.9042** 0.8097* 0.9538** 0.9753** 0.9719** 0.9251**
280-300 -0.8237* -0.8000* -0.7989* -0.7063* 0.7648* 0.7625* 0.7815* 0.6857 0.9610** 0.9036** 0.9188** 0.8912**
欠水年
Dry year
(2012
-2013)
0-20 0.9210** 0.9278** 0.9277** 0.9373** -0.5310 -0.5555 -0.4957 -0.4874 -0.2262 -0.1998 -0.1354 -0.2252
20-40 0.9211** 0.9040** 0.9586** 0.9683** -0.2732 -0.2943 -0.2669 -0.1612 0.0576 0.0763 0.1314 -0.0003
40-60 0.9692** 0.9677** 0.9568** 0.9771** 0.3756 0.3335 0.4430 0.4995 0.4314 0.4685 0.4980 0.4055
60-80 0.9121** 0.9224** 0.9294** 0.9174** 0.6591 0.6182 0.7311 0.7886* 0.7459 0.7472 0.6972 0.6058
80-100 0.9947** 0.9967** 0.9836** 0.9731** 0.6475 0.6220 0.7353 0.7636* 0.6276 0.5800 0.5841 0.5309
100-120 0.6400 0.6168 0.7007 0.7855* 0.9478** 0.9586** 0.9362** 0.9171** 0.8381* 0.8129* 0.8937** 0.8836**
120-140 0.5862 0.5638 0.6151 0.7286 0.9412** 0.9660** 0.9199** 0.9093** 0.9442** 0.9426** 0.9389** 0.8850**
140-160 0.2778 0.2760 0.3507 0.4613 0.9335** 0.9292** 0.9511** 0.9565** 0.9399** 0.9244** 0.9520** 0.9895**
160-180 -0.7762* -0.7694* -0.8199* -0.8684* 0.9577** 0.9538** 0.9682** 0.9764** 0.9391** 0.9340** 0.9465** 0.9671**
180-200 -0.8870** -0.9015** -0.8987** -0.9230** 0.9507** 0.9593** 0.9576** 0.9558** 0.9202** 0.9177** 0.9394** 0.9477**
200-220 -0.8958** -0.9127** -0.9295** -0.9051** 0.9762** 0.9690** 0.9836** 0.9954** 0.9574** 0.9450** 0.9389** 0.9663**
220-240 -0.8341* -0.8519* -0.8719** -0.8427* 0.8081* 0.7995* 0.8438* 0.9069** 0.9742** 0.9777** 0.9606** 0.9737**
240-260 -0.7590* -0.7811* -0.7973** -0.7003 0.3282 0.2575 0.3195 0.4393 0.9730** 0.9777** 0.9887** 0.9715**
260-280 -0.8277* -0.8427* -0.8169* -0.7388 -0.5553 -0.5149 -0.6192 -0.5579 0.9715** 0.9503** 0.9536** 0.9453**
280-300 -0.7911 -0.8061 -0.7419 -0.6649 -0.6390 -0.6586 -0.6107 -0.4762 0.9280** 0.9226** 0.8973** 0.9175**
欠水年
Dry year
(2015
-2016)
0-20 0.9590** 0.9777** 0.9878** 0.9701** -0.1653 -0.1741 -0.1191 -0.0585 0.7893 0.8348 0.8845 0.8652
20-40 0.9422** 0.9443** 0.9615** 0.9263** 0.4818 0.5142 0.5158 0.3691 0.7150 0.6486 0.5899 0.4373
40-60 0.8911** 0.9051** 0.9380** 0.9445* 0.7549* 0.7723* 0.7667* 0.5694 0.7294 0.6783 0.6776 0.6657
60-80 0.9753** 0.9821** 0.9927** 0.9501** 0.8193* 0.8260* 0.8000* 0.5870 0.5033 0.5511 0.6275 0.7870*
80-100 0.9325** 0.9476** 0.9732** 0.9900** 0.8491* 0.8777** 0.8726* 0.7041* 0.5754 0.6279 0.6909 0.8235**
100-120 0.9333** 0.9398** 0.9601** 0.9881** 0.9762** 0.9756** 0.9778** 0.9028** 0.7755* 0.8240* 0.8653* 0.8587**
120-140 0.9103** 0.8858** 0.8873** 0.8411** 0.9213** 0.9403** 0.9299** 0.8575* 0.9541** 0.9722** 0.9820** 0.9113**
140-160 0.6714 0.6079 0.5956 0.6230 0.9603** 0.9813** 0.9813** 0.9029** 0.9221** 0.9407** 0.9359** 0.9165**
160-180 -0.1822 -0.2586 -0.3570 -0.4491 0.9543** 0.9741** 0.9854** 0.9303** 0.9201** 0.9496** 0.9616** 0.8963**
180-200 -0.7140 -0.7372 -0.7912* -0.8516* 0.9506** 0.9499** 0.9593** 0.9254** 0.9487** 0.9551** 0.9463** 0.8256*
200-220 -0.8581* -0.8421* -0.8570* -0.8390* 0.9167** 0.9430** 0.9707** 0.9885** 0.9537** 0.9660** 0.9697** 0.9142**
220-240 -0.8342* -0.8297* -0.8559* -0.7978* 0.9559** 0.9753** 0.9893** 0.9270** 0.9608** 0.9766** 0.9743** 0.8903**
240-260 -0.8547* -0.8401* -0.8632* -0.9262** 0.7146 0.6672 0.6278 0.5764 0.9512** 0.9543** 0.9663** 0.9673**
260-280 -0.8330* -0.8294* -0.8439* -0.9449** 0.7410 0.7452 0.7795 0.9077 0.9652** 0.9814** 0.9796** 0.9109**
280-300 -0.9362** -0.9288** -0.8926** -0.8294* 0.7061 0.7073 0.7325 0.8912 0.9236** 0.9529** 0.9739** 0.9110**

Table 7

Effects of subsoiling during fallow period and sowing-mulched on yield and use efficiency in dryland wheat"

年份
Year
耕作
Tillage
播种方式
Sowing
method
产量
Yield
(kg·hm-2)
水分利用效率
WUE
(kg·hm-2·mm-1)
氮素吸收效率
NUP
(kg·kg-1)
氮素收获指数
NHI
氮素利用效率
NUE
(kg·kg-1)
氮素生产效率
NPE
(kg·kg-1)
丰水年
Humid year
(2011-2012)
SS FHS 6854.35a 14.45a 1.39a 0.84a 32.98ab 45.70a
FM 6194.60b 13.52b 1.31b 0.83a 31.48bc 41.30b
DS 5576.45c 12.03c 1.14c 0.81ab 32.58b 37.18c
NT FHS 5246.85d 11.27d 0.99d 0.80ab 35.19a 34.98d
FM 5324.85d 11.88cd 1.11c 0.81ab 31.87bc 35.50d
DS 4120.60e 10.05e 0.87e 0.78b 31.69bc 27.47e
欠水年
Dry year
(2012-2013)
SS FHS 3308.89b 9.20b 0.78b 0.78a 28.19bc 22.03b
FM 3713.96a 10.01a 0.86a 0.79a 28.82b 24.76a
DS 2991.45c 8.65c 0.68d 0.76a 29.46ab 19.94c
NT FHS 2709.22d 9.03c 0.61e 0.76a 29.83ab 18.06d
FM 2856.15cd 9.07c 0.72c 0.78a 26.29c 19.04cd
DS 2473.42e 8.10d 0.53f 0.72a 30.93a 16.49e
欠水年
Dry year
(2015-2016)
SS FHS 4185.34b 11.29b 0.80b 0.79ab 34.77a 27.90b
FM 4739.86a 12.08a 0.90a 0.81a 35.02a 31.60a
DS 3773.35c 10.79c 0.70c 0.75bc 35.98a 25.16c
NT FHS 3532.75d 10.66c 0.66c 0.74bc 35.90a 23.52d
FM 4084.38b 11.78b 0.76b 0.78ab 35.87a 27.23b
DS 3004.89e 9.92d 0.60d 0.70c 33.28b 20.03e

Table 8

Planting benefit of subsoiling during fallow period and sowing-mulched in dryland wheat (yuan/hm2)"

年份
Year
耕作
Tillage
播种方式
Sowing method
投入Input 收入
Income
纯收益
Return
耕作Tillage 播种Sow 地膜Plastic
丰水年
Humid year
(2011
-2012)
SS FHS 750 675 1125 16450.44 11807.44
FM 750 675 450 14867.04 10899.04
DS 0 525 0 13383.48 10765.48
NT FHS 750 675 1125 12592.44 7949.44
FM 750 675 450 12779.64 8811.64
DS 0 525 0 9889.44 7271.44
欠水年
Dry year
(2012
-2013)
SS FHS 750 675 1125 7929.36 3286.36
FM 750 675 450 8913.50 4945.50
DS 0 525 0 7179.48 4561.48
NT FHS 750 675 1125 6502.13 1859.13
FM 750 675 450 6854.76 2886.76
DS 0 525 0 5936.21 3318.21
欠水年
Dry year
(2015
-2016)
SS FHS 750 675 1125 10044.82 5401.82
FM 750 675 450 11375.66 7407.66
DS 0 525 0 9056.03 6438.03
NT FHS 750 675 1125 8469.00 3826.00
FM 750 675 450 9802.52 5834.52
DS 0 525 0 7211.74 5021.74
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[3] 王红光, 于振文, 张永丽, 石玉, 王东. 耕作方式对旱地小麦耗水特性和干物质积累的影响. 作物学报, 2012, 38(4): 675-682.
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WANG H G, YU Z W, ZHANG Y L, SHI Y, WANG D.Effects of tillage regimes on water consumption and dry matter accumulation in dryland wheat. Acta Agronomica Sinica, 2012, 38(4): 675-682. (in Chinese)
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[4] 赵亚丽, 薛志伟, 郭海斌, 穆心愿, 李潮海. 耕作方式与秸秆还田对冬小麦-夏玉米耗水特性和水分利用效率的影响. 中国农业科学, 2014, 47(17): 3359-3371.
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ZHAO Y L, XUE Z W, GUO H B, MU X Y, LI C H.Effects of tillage and straw returning on water consumption characteristics and water use efficiency in the winter wheat and summer maize rotation system.Scientia Agricultura Sinica, 2014, 47(17): 3359-3371. (in Chinese)
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[5] 侯贤清, 王维, 韩清芳, 贾志宽, 严波, 李永平, 苏秦. 夏闲期轮耕对小麦田土壤水分及产量的影响. 应用生态学报, 2011, 22(10): 2524-2532.
HOU X Q, WANG W, HAN Q F, JIA Z K, YAN B, LI Y P, SU Q.Effects of rotational tillage during summer fallow on wheat field soil water regime and grain yield.Chinese Journal of Applied Ecology, 2011, 22(10): 2524-2532. (in Chinese)
[6] 侯贤清, 李荣, 韩清芳, 王维, 贾志宽. 夏闲期不同耕作模式对土壤蓄水保墒效果及作物水分利用效率的影响. 农业工程学报, 2012, 28(3): 94-100.
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[7] 王育红, 姚宇卿, 吕军杰, 黄江涛, 张洁. 豫西旱坡地高留茬深松对冬小麦生态效应的研究. 中国生态农业学报, 2004, 12(4): 146-148.
WANG Y H, YAO Y Q, LÜ J J, HUANG J T, ZHANG J.Ecological effect of subsoiling high stubble on the winter wheat in sloping land of western Henan.Chinese Journal of Eco-Agriculture, 2004, 12(4): 146-148. (in Chinese)
[8] 王俊, 李凤民, 宋秋华, 李世清. 地膜覆盖对土壤水温和春小麦产量形成的影响. 应用生态学报, 2003, 14(2): 205-210.
WANG J, LI F M, SONG Q H, LI S Q.Effects of plastic film mulching on soil temperature and moisture and on yield formation of spring wheat.Chinese Journal Applied Ecology, 2003, 14(2): 205-210. (in Chinese)
[9] 柴守玺, 杨长刚, 张淑芳, 陈恒洪, 常磊. 不同覆膜方式对旱地冬小麦土壤水分和产量的影响. 作物学报, 2015, 41(5): 787-796.
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CHAI S X, YANG C G, ZHANG S F, CHEN H H, CHANG L.Effects of plastic mulching modes on soil moisture and grain yield in dryland winter wheat.Acta Agronomica Sinca, 2015, 41(5): 787-796. (in Chinese)
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[10] 牛一川, 安建平, 杨秀兰, 张慧敏, 皇甫满喜, 姚天明. 不同播种方式对冬小麦主要农艺性状及籽粒干物质积累的影响. 麦类作物学报, 2003, 23(2): 72-76.
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NIU Y C, AN J P, YANG X L, ZHANG H M, HUANFU M X, YAO T M.Effect of different planting ways on accumulation of dry matter in grain and main agronomic characters of winter wheat.Journal of Triticeae Crops, 2003, 23(2): 72-76. (in Chinese)
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[11] 马爱平, 靖华, 亢秀丽, 王裕智, 王会荣. 黄土丘陵区旱地小麦膜侧条播种植模式增产效应试验与示范. 农学学报, 2014, 4(10): 91-94.
MA A P, JIANG H, KANG X L, WANG Y Z, WANG H R.Study on yield-increasing effect tests and demonstrations of film-side drilling planting models in arid land wheat in loess hilly region.Journal of Agriculture, 2014, 4(10): 91-94. (in Chinese)
[12] 李凤民, 鄢珣, 王俊, 李世清, 王同朝. 地膜覆盖导致春小麦产量下降的机理. 中国农业科学, 2001, 34(3): 330-333.
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LI F M, YAN X, WANG J, LI S Q, WANG T C.The mechanism of yield decrease of spring wheat resulted from plastic film mulching.Scientia Agricultura Sinica, 2001, 34(3): 330-333. (in Chinese)
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[13] 陈辉林, 田霄鸿, 王晓峰, 曹玉贤, 吴玉红, 王朝辉. 不同栽培模式对渭北旱塬区冬小麦生长期间土壤水分、温度及产量的影响. 生态学报, 2010, 30(9): 2424-2433.
CHEN H L, TIAN X H, WANG X F, CAO Y X, WU Y H, WANG Z H.Effects of different cultivation models on soil water, soil temperature and yield during the winter wheat growth in the Weibei highland.Acta Ecologica Sinca, 2010, 30(9): 2424-2433. (in Chinese)
[14] 祁有玲, 张富仓, 李开峰. 水分亏缺和施氮对冬小麦生长及氮素吸收的影响. 应用生态学报, 2009, 20(10): 2399-2405.
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[17] 任爱霞, 孙敏, 赵维峰, 邓联峰, 邓妍, 高志强. 夏闲期耕作对旱地小麦土壤水分及植株氮素吸收、运转特性的影响. 应用生态学报, 2013, 24(12): 3471-3478.
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