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Acta Agronomica Sinica ›› 2024, Vol. 50 ›› Issue (3): 756-770.doi: 10.3724/SP.J.1006.2024.32013

• TILLAGE & CULTIVATION·PHYSIOLOGY & BIOCHEMISTRY • Previous Articles     Next Articles

Effects of rice straw mulching combined with green manure retention and nitrogen reduction applications on dry matter quality accumulation, nitrogen transport and grain yield of rice

WANG Lyu1(), WU Yu-Hong1,*(), QIN Yu-Hang1, DAN Ya-Bin1, CHEN Hao1, HAO Xing-Shun1, TIAN Xiao-Hong2,*()   

  1. 1Hanzhong Agricultural Technology Extension and Training Center, Hanzhong 723000, Shaanxi, China
    2College of Natural Resources and Environment, Northwest A&F University, Yangling 721000, Shaanxi, China
  • Received:2023-04-12 Accepted:2023-09-13 Online:2024-03-12 Published:2023-09-28
  • Contact: *E-mail: 382755569@qq.com; E-mail: txhong@nwsuaf.edu.cn
  • Supported by:
    Shaanxi Provincial Key Research and Development Program(2022ZDLNY02-06)

Abstract:

The integrated effect of milk vetch (Astragalus sinicus L.) and rice straws combined with nitrogen reduction on dry matter, nitrogen uptake, and transport during key growth period in rice, and rice yield was studied to provide the theoretical basis for green and efficient cultivation in rice. A field experiment was conducted at Hantang Experimental Base of Hanzhong Institute of Agricultural Sciences, Shaanxi Province from 2019 to 2021. The randomized block design was adopted and repeated for 3 times. The tested rice variety was high-quality indica rice ‘Huanghuazhan’. Five treatments included: (1) winter fallow, no rice straw mulching, no fertilization (CK); (2) winter fallow, no rice straw mulching, conventional nitrogen fertilizer rate (NPK); (3) planting green manure in winter, rice straw mulching with conventional nitrogen fertilizer rate (GRN100); (4) planting green manure in winter, rice straw mulching with 80% conventional nitrogen fertilizer rate (GRN80); (5) planting green manure in winter, rice straw mulching with 70% conventional nitrogen fertilizer rate (GRN70). The dry matter accumulation, nitrogen accumulation, nitrogen transport and nitrogen utilization at the full heading and mature stage in rice were analyzed. The results showed that: (I) Compared with NPK, the yield of rice increased by 3.50%-7.65% under the milk vetch+rice straw treatments, and the dry weight of stem sheath, leaf, and panicle increased by 25.54%-44.79%, 44.79%-53.74%, 33.76%-61.81% at the full heading stage. The dry weight of stem sheath and leaf increased by 6.87%-25.57%, 20.87%-23.46% at maturity stage. Compared with GRN100, the grain yield of GRN80 and GRN70 was increased by 4.00%-2.77%, the dry weight of panicle increased by 21.33%-4.56% at the full heading stage, and the dry weight of stems sheath, and panicle increased by 17.52%-10.91% during the mature stage of GRN80. (II) Compared with NPK, the nitrogen accumulation in stem sheath, leaf and panicle of the milk vetch+rice straw treatments increased by 34.84%-60.59%, 50.41%-69.28%, 26.57%-45.35% during the full heading stage, 48.61%-54.78%, 54.67%-91.81%, 6.42%-19.96% at mature stage, 16.89%-64.99% in stem sheath nitrogen transport, 47.85%-73.05% in leaf nitrogen transport, and 27.75%-41.09% in nitrogen transport contribution rate. Compared with GRN100, nitrogen increasement in the panicle of GRN80 increased by 19.76%, and nitrogen transport capacity, stem sheath transport rate, leaf transport rate, and nitrogen transport efficiency increased by 7.46%, 2.73%, 9.35%, and 6.86%, respectively. (Ⅲ) Compared with NPK, the nitrogen dry matter production efficiency decreased by 10.64%-20.92%, the nitrogen fertilizer physiological utilization efficiency decreased by 17.88%-32.89%, the nitrogen fertilizer agronomic efficiency increased by 7.81%-63.03%, the nitrogen recovery rate increased by 57.36%-97.19%, and the nitrogen fertilizer partial productivity increased by 3.55%-52.00%. Compared with GRN100, GRN80 and GRN70 increased nitrogen dry matter production efficiency by 13.00%-10.97%, nitrogen fertilizer physiological utilization efficiency by 12.34%-22.37%, nitrogen fertilizer agricultural efficiency by 35.66%-51.21%, nitrogen recovery rate by 21.04%-25.52%, and nitrogen fertilizer partial productivity by 30.04%-46.79%. In conclusion, the co-incorporation of Chinese milk vetch and rice straw in winter accompanied by reducing 20% or 30% N application rate based on conventional N application rate, can significantly increase rice yield, nitrogen absorption and transportation and nitrogen utilization. It may be a green and efficient cultivation model suitable for rice production in the Hanzhong region.

Key words: Chinese milk vetch-rice, nitrogen reduction, dry matter accumulation, nitrogen accumulation, nitrogen utilization

Table 1

Fertilizer application, rice straw and Chinese milk vetch return and nitrogen content"

处理
Treatment
基肥用量
Base-manure amounts
(kg hm-2)
追肥用量
Topdressing amounts
(kg hm-2)
水稻秸秆还田量和氮含量
Rice straw return (t hm-2) and nitrogen content (g kg-1)
紫云英还田量和氮含量
Chinese milk vetch return (t hm-2) and nitrogen content (g kg-1)
2020 2021 2020 2021
CK N 126, K2O 105, P2O5 90 N 54
NPK N 126, K2O 105, P2O5 90 N 54
GRN100 N 126, K2O 105, P2O5 90 N 54 7.69, 7.93 5.88, 9.63 18.00, 30.31 18.00, 31.83
GRN80 N 101, K2O 105, P2O5 90 N 43 8.51, 6.66 6.53, 7.44 18.00, 29.86 18.00, 31.47
GRN70 N 88, K2O 105, P2O5 90 N 38 8.21, 7.17 5.93, 8.26 18.00, 28.73 18.00, 30.26

Table 2

Effect of straw-green manure return and nitrogen reduction applications on rice yield components"

年度
Season
处理
Treatment
产量
Rice yield
(kg hm-2)
有效穗
Effective panicle
(×104 hm-2)
每穗实粒数
Filled grain number per panicle
千粒重
1000-grain weight
(g)
结实率
Seed-setting rate
(%)
2020 CK 5273±223.18 c 122.85±5.84 d 133.92±1.56 c 20.69±0.43 c 96.07±0.14 a
NPK 8615±172.16 b 222.41±5.74 c 141.29±1.12 b 21.51±0.41 b 95.83±0.45 ab
GRN100 8853±170.41 ab 264.98±5.82 b 146.14±0.80 ab 22.12±0.63 ab 94.88±0.26 ab
GRN80 9185±206.67 a 287.62±3.47 a 147.71±3.17 a 22.93±0.45 a 94.84±0.46 b
GRN70 9118±201.04 a 259.35±7.95 b 143.24±1.02 ab 22.52±0.21 a 95.41±0.26 ab
2021 CK 4964±284.99 c 135.27±1.42 c 144.63±12.13 b 20.16±0.42 b 96.76±0.33 a
NPK 10,143±147.42 b 297.93±11.07 b 153.16±8.63 b 21.17±0.24 a 96.07±0.14 a
GRN100 10,573±336.05 ab 305.28±7.60 b 169.44±12.70 a 21.27±0.07 a 96.18±1.52 a
GRN80 11,024±534.99 a 326.65±4.05 a 167.12±16.35 a 21.58±0.19 a 96.46±0.62 a
GRN70 10,843±245.83 a 297.59±6.58 b 167.86±13.35 a 21.31±0.16 a 96.19±1.00 a
方差分析ANOVA
年度Season (S) 263.71** 454.74** 130.20** 96.36* 13.05
氮肥Nitrogen (N) 305.20** 665.64** 18.10** 20.18** 2.56
年度×氮肥 (S×N) 14.09** 16.42** 5.05** 1.91 1.46

Table 3

Analysis of variance"

生育期
Growth stage
因子
Factor
年度
Season (S)
氮肥
Nitrogen (N)
年度×氮肥
S×N
齐穗期
Full Heading stage
干物质量
Dry matter quality
茎鞘Stem sheat 1.66 64.54** 2.80
叶片Leaf 6.21 82.95** 0.76
穗Panicle 0.11 23.63** 0.45
植株Plant 2.53 179.34** 3.00
干物质分配
Dry matter partioning
茎鞘Stem sheat 3590.26** 2.31 2.09
叶片Leaf 448.59** 15.35** 2.47
穗Panicle 2410.21** 0.71 0.60
氮累积量
Nitrogen accumulation
茎鞘Stem sheat 60.05* 227.33** 22.38**
叶片Leaf 4.15 629.5** 7.79**
穗Panicle 184.39** 51.78** 0.78
植株Plant 130.24** 1204.96** 18.12**
氮累积量分配
Nitrogen accumulation partioning
茎鞘Stem sheat 3.36 3.75* 16.75**
叶片Leaf 6.56 25.45** 3.72*
穗Panicle 7.76 17.67** 2.15
成熟期
Mature stage
干物质量
Dry matter quality
茎鞘Stem sheat 10.07 20.68** 7.22**
叶片Leaf 95.28* 56.73** 16.44**
穗Panicle 44.39* 398.75** 1.64
植株Plant 12.67 265.15** 11.29**
干物质分配
Dry matter partioning
茎鞘Stem sheat 3.36 6.19** 1.94
叶片Leaf 64.10* 2.99 5.49**
穗Panicle 235.85** 4.60* 5.58**
氮累积量
Nitrogen accumulation
茎鞘Stem sheat 6.92 561.42** 11.57**
叶片Leaf 116.08** 537.53** 24.36**
穗Panicle 1487.34** 1726.92** 51.46**
植株Plant 414.01** 1781.24** 14.67**
氮累积量分配
Nitrogen accumulation partioning
茎鞘Stem sheat 1.62 34.45** 11.14**
叶片Leaf 209.19** 152.67** 43.29**
穗Panicle 3003.59** 107.08** 40.77**
成熟期
Mature stage
氮肥养分利用率
Nitrogen fertilizer nutrient utilization rate
氮素收获指数NHI 30.14* 3.88* 7.38**
氮素干物质生产效率NDMPE 40.10* 281.02** 7.72**
氮肥农学效率NAE 1039.22** 70.64* 2.79
氮肥偏生产力NPFP 746.24** 235.01** 2.15
氮素回收率NRE 2.28 161.21** 4.02*
氮肥生理利用率NPE 127.70** 64.05** 13.96**
齐穗期后
After full heading stage
氮转运
Nitrogen transport
茎鞘Stem sheat 6888.06** 181.09** 66.78**
叶片Leaf 20.1* 574.27** 16.62**
穗Panicle 160.26** 597.37** 25.57**
氮转运率
Nitrogen transfer rate
茎鞘Stem sheat 400.46** 30.17** 45.59**
叶片Leaf 1578.82** 10.52** 22.95**
氮素转运效率NTE 361.85** 16.30** 1.86
氮转运贡献率NTCR 314.18** 11.18** 2.62

Fig. 1

Effect of straw-green manure return and nitrogen reduction applications on dry weight of rice Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

Fig. 2

Effect of straw-green manure return and nitrogen reduction applications on dry weight partioning of rice Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

Fig. 3

Effect of straw-green manure return and nitrogen reduction applications on nitrogen accumulation Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

Fig. 4

Effect of straw-green manure return and nitrogen reduction applications on nitrogen accumulation partioning of rice Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

Fig. 5

Effect of straw-green manure return and nitrogen reduction applications on nitrogen transport of rice Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

Fig. 6

Effect of straw-green manure return and nitrogen reduction applications on characteristics of nitrogen utilization (a): N harvest index; (b): N dry matter production efficiency; (c): N Agronomic efficiency; (d): N recovery efficiency; (e): N partial factor productivity; (f): N Physiological efficiency. Different lowercase letters above the bars indicate significant difference among treatments at the 5% probability level. Treatments are the same as those given in Table 2."

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