Scientia Agricultura Sinica ›› 2020, Vol. 53 ›› Issue (21): 4415-4429.doi: 10.3864/j.issn.0578-1752.2020.21.010

• SPECIAL FOCUS: HIGH EFFICIENCY UTILIZATION OF WATER AND FERTILIZER OF WHEAT-MAIZE CROPPING SYSTEM • Previous Articles     Next Articles

Effects of Main Food Yield Under Straw Return in China: A Meta-Analysis

YANG JunHao(),LUO YongLi,CHEN Jin,JIN Min,WANG ZhenLin,LI Yong()   

  1. Shandong Agricultural University/State Key Laboratory of Crop Biology, Tai’an 271018, Shandong
  • Received:2020-05-14 Accepted:2020-07-30 Online:2020-11-01 Published:2020-11-11
  • Contact: Yong LI E-mail:1023932708@qq.com;woooowo@126.com

Abstract:

【Objective】In order to provide scientific grounds for the implementation of grain crop straw return, this study quantified the yield effect of straw return.【Method】It was collected and sorted out the published Chinese literatures in the past 30 years (a total of 274 piece of literature and 1 930 pairs data until December 31, 2019). By using meta-analysis method, the comprehensive effect of straw returning on crop yield was clarified with the main analysis process, included calculation of effect value, heterogeneity test, meta-subgroup analysis and publication bias test. And then, the effects under different experiment region, average annual temperature, average annual precipitation, soil texture, soil pH, crop type, planting system, tillage method, fertilization method, experiment duration and return amount was further quantitatively analyzed.【Result】Compared with straw remove, straw return significantly increased crop yield, and the average increasing rate was about 8.06%, with a 95% confidence interval of 7.52%-8.60%. No publication bias was found in the result. The yield effect was the highest in the southeastern region, reaching 9.37% (95% CI: 8.11%-10.64%). The straw-return effect was higher when the average annual temperature was 5-10 °C and the average annual precipitation is more than 1 200 mm. In different soil texture, the yield effect of straw return was 8.13% in clay (95% CI: 6.80%-9.49%), 9.04% in loam (95% CI: 8.06%-10.01%) and 6.96% in sandy soils (95% CI: 5.18%-8.77%), respectively. Among the three types of grain crops, namely, wheat, corn, and rice, the increase rate of yield on maize reached 9.22% (95% CI: 8.38%-10.05%) by straw returning. Plowing and no-till was the best tillage methods exerting the yield effect of straw returning, the increasing rate of yield were 11.05% (95% CI: 10.05%-12.05%) and 8.98% (95% CI: 7.21%-10.79%), respectively. When the straw was returned to the field without fertilization, the crop yield was significantly increased with an increase rate of 25.66% (95% CI: 22.04%-29.38%), which was significantly higher than that of 8.08% (95% CI: 7.50%-8.68%) under normal fertilization, but the overall yield level was lower. The yield increase rate of straw mulching reached 9.56% and the yield increase effect of straw mulching over 20 years was significantly increased (yield increase rate: 15.42%, 95% CI: 11.05%-19.95%). In addition, the most suitable amount of straw was half of the ex-crop (increase rate of yield was 9.09%, 95% CI: 7.41%-10.79%).【Conclusion】Straw return could significantly increase crop yield in different agricultural production areas. Furthermore, the long-term implication of crop straw with no-till or plowing tillage, normal fertilization and appropriate amount, could maintain continuous increase in crop yield.

Key words: straw return, China, crop, yield effect, meta-analysis

Table 1

Classification of experiment data"

影响因素 Influence factor 分类亚组 Classification of sup-group
试验区域 Experiment region 东北、华北、西北、东南、西南 Northeast, North, Northwest, Southeast, Southwest
年平均气温 Average annual temperature <5℃、5-10℃、10-15℃、15-20℃
年平均降雨量 Average annual precipitation <400 mm、400-800 mm、800-1200 mm、>1200 mm
土壤质地 Soil texture 黏土、壤土、砂土 Clayey soil, loam soil, sand soil
土壤酸碱性 Soil pH 弱酸性土壤、中性土壤、碱性土壤 pH<6.5、6.5<pH<7.5、pH>7.5
作物种类 Crop type 小麦、玉米、水稻 Wheat, Maize, Rice
种植制度 Plant system 一年一熟制、一年两熟制 Single plant, Double plant
耕作方式 Tillage method 深耕、免耕、旋耕、翻耕 Deep tillage, No-till, Rotary tillage, Plowing
施肥模式 Fertilization 不施肥(F0)、不施氮肥(N0)、不施钾肥(K0)、低氮施肥(N-)、高氮施肥(N+)、正常施肥(F)
还田年限 Experiment duration 0-5、5-10、10-15、15-20、>20
秸秆还田量 Return amount 少量还田(0-50%)、适量还田(50%-100%)、全量还田(100%)、过量还田(>100%)

Table 2

Average effect size of crop yield under straw return"

模型
Model
增产率
Rate (%)
置信区间CI (%) Z-val n Q-val PQ-val I2 (%) PB-val
下限LL 上限UL
随机效应模型 REM 8.06 7.52 8.60 30.193 1930 67433 0.000 97.55 0.0605

Fig. 1

Funnel plot of publication bias test"

Table 3

Results of sub-group meta-analysis"

解释变量 explaning variance I2 (%) Qm PQ-val R2 (%)
试验区域 Region 97.59 7.1078 0.1303 0.23
年均气温 Average annual temperatur 97.60 2.9258 0.4028 0.03
年均降水量 Average annual precipitation 97.58 10.4892 0.0148 0.51
土壤质地 Soil character 97.60 6.0149 0.1109 0.12
土壤酸碱性 Soil pH 97.54 34.9845 <0.0001 1.96
作物种类 Crop type 97.22 246.6566 <0.0001 13.75
种植模式 Plant system 97.60 6.5813 0.0103 0.39
耕作方式 Tillage method 97.51 59.3379 <0.0001 3.04
肥料运筹 Fertilization 97.44 120.1434 <0.0001 6.52
还田年限 Return duration 97.56 25.4725 <0.0001 1.28
秸秆还田量 Straw amount 97.60 1.9179 0.5896 0.00

Fig. 2

Analysis of factors affecting crop yield under straw-return"

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