Rice Science ›› 2022, Vol. 29 ›› Issue (1): 89-100.DOI: 10.1016/j.rsci.2021.12.008
• Research Paper • Previous Articles
Li Lin1,2, Zhang Zheng1,2, Tian Hua1,2, Umair Ashraf1,3, Yousef Alhaj Hamoud4, Al Aasmi Alaa5, Tang Xiangru1,2, Duan Meiyang1,2, Wang Zaiman6, Pan Shenggang1,2()
Received:
2020-11-09
Accepted:
2021-02-25
Online:
2022-01-28
Published:
2022-01-01
Contact:
Pan Shenggang
Li Lin, Zhang Zheng, Tian Hua, Umair Ashraf, Yousef Alhaj Hamoud, Al Aasmi Alaa, Tang Xiangru, Duan Meiyang, Wang Zaiman, Pan Shenggang. Nitrogen Deep Placement Combined with Straw Mulch Cultivation Enhances Physiological Traits, Grain Yield and Nitrogen Use Efficiency in Mechanical Pot-Seedling Transplanting Rice[J]. Rice Science, 2022, 29(1): 89-100.
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Treatment | Chlorophyll content (mg/g) | Pn [μmol/(m2·s)] | |||
---|---|---|---|---|---|
MTS | PIS | HS | |||
Wufengyou 615 in 2019 | |||||
CK | 4.04 e | 3.79 c | 3.19 c | 17.80 d | |
MDS | 6.17 a | 4.41 a | 4.47 a | 24.51 b | |
MBS | 4.97 c | 4.03 b | 3.78 b | 21.28 c | |
MD | 5.69 b | 4.41 a | 4.40 a | 26.95 a | |
MB | 4.54 d | 4.37 a | 3.85 b | 20.16 c | |
Mean | 5.08 | 4.21 | 3.94 | 22.14 | |
Yuxiangyouzhan in 2019 | |||||
CK | 3.92 e | 4.22 c | 3.09 e | 16.50 c | |
MDS | 6.24 a | 4.67 a | 4.33 a | 23.18 a | |
MBS | 5.10 c | 4.38 bc | 3.88 c | 19.25 b | |
MD | 5.99 b | 4.53 ab | 4.10 b | 22.93 a | |
MB | 4.21 d | 4.28 c | 3.34 d | 18.35 b | |
Mean | 5.09 | 4.42 | 3.75 | 20.04 | |
Wufengyou 615 in 2020 | |||||
CK | 3.36 c | 3.12 d | 3.15 c | 18.11 c | |
MDS | 5.64 a | 4.28 b | 4.15 a | 22.86 a | |
MBS | 4.33 b | 4.09 bc | 3.99 a | 20.98 b | |
MD | 5.43 a | 4.81 a | 4.11 a | 23.63 a | |
MB | 4.13 b | 4.02 c | 3.65 b | 20.02 b | |
Mean | 4.58 | 4.06 | 3.81 | 21.92 | |
Yuxiangyouzhan in 2020 | |||||
CK | 3.49 c | 3.54 c | 3.08 c | 17.72 c | |
MDS | 5.38 a | 4.42 ab | 4.38 a | 25.20 a | |
MBS | 5.15 a | 3.61 c | 3.84 b | 22.13 b | |
MD | 5.56 a | 4.46 a | 4.15 a | 23.88 ab | |
MB | 4.19 b | 4.03 b | 3.36 c | 19.33 c | |
Mean | 4.75 | 4.01 | 3.76 | 22.64 | |
Year (Y) | ns | ns | ns | ns | |
Cultivar (C) | ns | ** | * | ns | |
Y × C | ns | ** | ns | ns |
Table 1. Effects of deep nitrogen fertilization coupled with straw return on total chlorophyll content and net photosynthetic rate (Pn) of rice in mechanical pot-seedling transplanting rice in 2019 and 2020.
Treatment | Chlorophyll content (mg/g) | Pn [μmol/(m2·s)] | |||
---|---|---|---|---|---|
MTS | PIS | HS | |||
Wufengyou 615 in 2019 | |||||
CK | 4.04 e | 3.79 c | 3.19 c | 17.80 d | |
MDS | 6.17 a | 4.41 a | 4.47 a | 24.51 b | |
MBS | 4.97 c | 4.03 b | 3.78 b | 21.28 c | |
MD | 5.69 b | 4.41 a | 4.40 a | 26.95 a | |
MB | 4.54 d | 4.37 a | 3.85 b | 20.16 c | |
Mean | 5.08 | 4.21 | 3.94 | 22.14 | |
Yuxiangyouzhan in 2019 | |||||
CK | 3.92 e | 4.22 c | 3.09 e | 16.50 c | |
MDS | 6.24 a | 4.67 a | 4.33 a | 23.18 a | |
MBS | 5.10 c | 4.38 bc | 3.88 c | 19.25 b | |
MD | 5.99 b | 4.53 ab | 4.10 b | 22.93 a | |
MB | 4.21 d | 4.28 c | 3.34 d | 18.35 b | |
Mean | 5.09 | 4.42 | 3.75 | 20.04 | |
Wufengyou 615 in 2020 | |||||
CK | 3.36 c | 3.12 d | 3.15 c | 18.11 c | |
MDS | 5.64 a | 4.28 b | 4.15 a | 22.86 a | |
MBS | 4.33 b | 4.09 bc | 3.99 a | 20.98 b | |
MD | 5.43 a | 4.81 a | 4.11 a | 23.63 a | |
MB | 4.13 b | 4.02 c | 3.65 b | 20.02 b | |
Mean | 4.58 | 4.06 | 3.81 | 21.92 | |
Yuxiangyouzhan in 2020 | |||||
CK | 3.49 c | 3.54 c | 3.08 c | 17.72 c | |
MDS | 5.38 a | 4.42 ab | 4.38 a | 25.20 a | |
MBS | 5.15 a | 3.61 c | 3.84 b | 22.13 b | |
MD | 5.56 a | 4.46 a | 4.15 a | 23.88 ab | |
MB | 4.19 b | 4.03 b | 3.36 c | 19.33 c | |
Mean | 4.75 | 4.01 | 3.76 | 22.64 | |
Year (Y) | ns | ns | ns | ns | |
Cultivar (C) | ns | ** | * | ns | |
Y × C | ns | ** | ns | ns |
Fig. 1. Effects of deep nitrogen fertilization coupled with straw return on nitrate reductase (NR) activity in mechanical pot-seedling transplanting rice in 2019 and 2020. CK, No fertilizer and no straw return; MDS, Deep N fertilization and straw return; MBS, Broadcasting fertilizer and straw return; MD, Deep N fertilization without straw return; MB, Broadcasting fertilizer without straw return; MTS, Mid-tillering stage; PIS, Panicle initiation stage; HS, Heading stage. Data are Mean ± SE (n = 3). The same lowercase letters above bars at each stage are not significantly different at the 0.05 level according to the least significant different test.
Fig. 2. Effects of deep nitrogen fertilization coupled with straw return on glutamine synthetase (GS) activity in mechanical pot-seedling transplanting rice in 2019 and 2020. CK, No fertilizer and no straw return; MDS, Deep N fertilization and straw return; MBS, Broadcasting fertilizer and straw return; MD, Deep N fertilization without straw return; MB, Broadcasting fertilizer without straw return; MTS, Mid-tillering stage; PIS, Panicle initiation stage; HS, Heading stage. Data are Mean ± SE (n = 3). The same lowercase letters above bars at each stage are not significantly different at the 0.05 level according to the least significant different test.
Treatment | No. of productive panicles per m2 | No. of spikelets per panicle | Grain filling rate (%) | 1000-grain weight (g) | Yield (t/hm2) | |
---|---|---|---|---|---|---|
Wufengyou 615 in 2019 | ||||||
CK | 160.0 c | 158.9 b | 84.1 ab | 20.71 b | 4.66 c | |
MDS | 259.2 a | 208.9 a | 87.5 a | 21.69 a | 7.98 ab | |
MBS | 205.7 bc | 175.0 b | 81.9 b | 20.45 b | 6.24 bc | |
MD | 267.0 a | 207.3 a | 86.2 a | 21.38 a | 8.22 a | |
MB | 209.5 b | 162.7 b | 80.3 b | 20.15 b | 5.74 c | |
Mean | 220.3 | 182.6 | 84.4 | 20.88 | 6.57 | |
Yuxiangyouzhan in 2019 | ||||||
CK | 152.2 c | 147.6 b | 71.1 c | 19.59 a | 3.04 c | |
MDS | 276.0 a | 189.3 a | 86.5 a | 20.95 a | 8.54 a | |
MBS | 212.5 bc | 173.1 ab | 83.9 ab | 20.97 a | 5.86 b | |
MD | 256.7 ab | 181.4 ab | 82.2 abc | 20.31 a | 8.10 a | |
MB | 176.0 c | 153.3 b | 75.1 bc | 20.73 a | 4.51 bc | |
Mean | 214.7 | 169.0 | 80.5 | 19.31 | 6.01 | |
Wufengyou 615 in 2020 | ||||||
CK | 155.7 c | 141.6 c | 83.7 ab | 20.74 b | 4.79 c | |
MDS | 273.0 a | 182.5 a | 87.7 a | 21.22 a | 8.81 a | |
MBS | 219.5 b | 172.3 ab | 78.9 b | 20.35 b | 6.38 b | |
MD | 263.7 a | 174.5 ab | 84.4 a | 21.24 a | 8.50 a | |
MB | 197.7 b | 145.6 bc | 79.0 b | 20.39 b | 6.11 b | |
Mean | 221.9 | 163.3 | 82.7 | 20.78 | 6.92 | |
Yuxiangyouzhan in 2020 | ||||||
CK | 142.0 c | 139.3 b | 74.3 ab | 19.43 a | 4.09 b | |
MDS | 232.0 ab | 177.1 ab | 80.5 ab | 21.02 a | 8.01 a | |
MBS | 210.2 b | 163.0 ab | 70.3 b | 20.05 a | 5.55 b | |
MD | 254.5 a | 187.3 a | 84.5 a | 20.81 a | 7.92 a | |
MB | 167.7 c | 146.3 b | 77.7 ab | 20.34 a | 5.10 b | |
Mean | 201.3 | 162.6 | 77.5 | 20.33 | 6.14 | |
Year (Y) | ns | ** | * | ** | ns | |
Cultivar (C) | ns | ns | ns | ** | ns | |
Y × C | ns | ns | ns | * | ns |
Table 2. Effects of deep nitrogen fertilization coupled with straw return on grain yield and related traits in mechanical pot-seedling transplanting rice in 2019 and 2020.
Treatment | No. of productive panicles per m2 | No. of spikelets per panicle | Grain filling rate (%) | 1000-grain weight (g) | Yield (t/hm2) | |
---|---|---|---|---|---|---|
Wufengyou 615 in 2019 | ||||||
CK | 160.0 c | 158.9 b | 84.1 ab | 20.71 b | 4.66 c | |
MDS | 259.2 a | 208.9 a | 87.5 a | 21.69 a | 7.98 ab | |
MBS | 205.7 bc | 175.0 b | 81.9 b | 20.45 b | 6.24 bc | |
MD | 267.0 a | 207.3 a | 86.2 a | 21.38 a | 8.22 a | |
MB | 209.5 b | 162.7 b | 80.3 b | 20.15 b | 5.74 c | |
Mean | 220.3 | 182.6 | 84.4 | 20.88 | 6.57 | |
Yuxiangyouzhan in 2019 | ||||||
CK | 152.2 c | 147.6 b | 71.1 c | 19.59 a | 3.04 c | |
MDS | 276.0 a | 189.3 a | 86.5 a | 20.95 a | 8.54 a | |
MBS | 212.5 bc | 173.1 ab | 83.9 ab | 20.97 a | 5.86 b | |
MD | 256.7 ab | 181.4 ab | 82.2 abc | 20.31 a | 8.10 a | |
MB | 176.0 c | 153.3 b | 75.1 bc | 20.73 a | 4.51 bc | |
Mean | 214.7 | 169.0 | 80.5 | 19.31 | 6.01 | |
Wufengyou 615 in 2020 | ||||||
CK | 155.7 c | 141.6 c | 83.7 ab | 20.74 b | 4.79 c | |
MDS | 273.0 a | 182.5 a | 87.7 a | 21.22 a | 8.81 a | |
MBS | 219.5 b | 172.3 ab | 78.9 b | 20.35 b | 6.38 b | |
MD | 263.7 a | 174.5 ab | 84.4 a | 21.24 a | 8.50 a | |
MB | 197.7 b | 145.6 bc | 79.0 b | 20.39 b | 6.11 b | |
Mean | 221.9 | 163.3 | 82.7 | 20.78 | 6.92 | |
Yuxiangyouzhan in 2020 | ||||||
CK | 142.0 c | 139.3 b | 74.3 ab | 19.43 a | 4.09 b | |
MDS | 232.0 ab | 177.1 ab | 80.5 ab | 21.02 a | 8.01 a | |
MBS | 210.2 b | 163.0 ab | 70.3 b | 20.05 a | 5.55 b | |
MD | 254.5 a | 187.3 a | 84.5 a | 20.81 a | 7.92 a | |
MB | 167.7 c | 146.3 b | 77.7 ab | 20.34 a | 5.10 b | |
Mean | 201.3 | 162.6 | 77.5 | 20.33 | 6.14 | |
Year (Y) | ns | ** | * | ** | ns | |
Cultivar (C) | ns | ns | ns | ** | ns | |
Y × C | ns | ns | ns | * | ns |
Fig. 3. Effects of mechanized deep nitrogen fertilization coupled with straw return on total above-ground biomass (TAB) in mechanical pot-seedling transplanting rice in 2019 and 2020. CK, No fertilizer and no straw return; MDS, Deep N fertilization and straw return; MBS, Broadcasting fertilizer and straw return; MD, Deep N fertilization without straw return; MB, Broadcasting fertilizer without straw return; MTS, Mid-tillering stage; PIS, Panicle initiation stage; HS, Heading stage; MS, Maturity stage. Data are Mean ± SE (n = 3). The same lowercase letters above bars at each stage are not significantly different at the 0.05 level according to the least significant different test.
Fig. 4. Effects of mechanized deep nitrogen fertilization coupled with straw return on leaf area index in mechanical pot-seedling transplanting rice in 2019 and 2020. CK, No fertilizer and no straw return; MDS, Deep N fertilization and straw return; MBS, Broadcasting fertilizer and straw return; MD, Deep N fertilization without straw return; MB, Broadcasting fertilizer without straw return; MTS, Mid-tillering stage; PIS, Panicle initiation stage; HS, Heading stage. Data are Mean ± SE (n = 3). The same lowercase letters above bars at each stage are not significantly different at the 0.05 level according to the least significant different test.
Treatment | TNA (kg/hm2) | NPFP (kg/kg) | NHI | NRE (%) | NAE (kg/kg) |
---|---|---|---|---|---|
Wufengyou 615 in 2019 | |||||
CK | 111.49 c | 28.32 c | 0.59 a | - | - |
MDS | 182.56 a | 66.45 a | 0.61 a | 46.05 a | 28.12 a |
MBS | 146.97 b | 44.33 b | 0.59 a | 20.65 b | 14.01 b |
MD | 167.38 a | 68.33 a | 0.52 ab | 38.93 a | 22.01 ab |
MB | 119.88 c | 36.43 bc | 0.47 b | 16.59 c | 12.11 b |
Mean | 145.66 | 48.77 | 0.56 | 30.05 | 19.06 |
Yuxiangyouzhan in 2019 | |||||
CK | 96.65 c | 28.21 b | 0.47 b | - | - |
MDS | 171.88 a | 57.50 a | 0.56 a | 47.48 a | 19.29 a |
MBS | 117.92 c | 38.52 b | 0.53 ab | 18.18 b | 12.29 ab |
MD | 160.80 a | 52.73 a | 0.50 ab | 40.76 a | 16.52 a |
MB | 121.14 b | 31.76 b | 0.55 a | 20.32 b | 8.54 b |
Mean | 133.68 | 41.74 | 0.52 | 31.68 | 14.16 |
Wufengyou 615 in 2020 | |||||
CK | 110.92 d | 31.96 c | 0.56 ab | - | - |
MDS | 179.33 a | 58.73 a | 0.61 a | 45.60 a | 20.78 a |
MBS | 155.21 b | 42.53 b | 0.57 ab | 28.72 b | 10.57 b |
MD | 174.29 a | 56.70 a | 0.53 bc | 42.25 a | 18.74 a |
MB | 131.98 c | 40.73 b | 0.49 c | 18.04 c | 8.77 b |
Mean | 150.30 | 46.13 | 0.55 | 33.65 | 14.71 |
Yuxiangyouzhan in 2020 | |||||
CK | 104.04 c | 27.27 c | 0.49 b | - | - |
MDS | 172.68 a | 50.72 a | 0.57 a | 41.76 a | 20.45 a |
MBS | 133.02 b | 36.98 b | 0.52 b | 19.32 b | 9.71 b |
MD | 177.40 a | 51.23 a | 0.53 ab | 44.91 a | 20.96 a |
MB | 129.01 b | 33.65 b | 0.53 ab | 16.64 b | 9.38 b |
Mean | 143.23 | 39.97 | 0.53 | 30.66 | 15.13 |
Year (Y) | ns | ns | ns | ns | ns |
Cultivar (C) | * | ** | ns | ns | * |
Y × C | ns | ns | ns | ns | ns |
Table 3. Effects of deep nitrogen fertilization coupled with straw return on nitrogen use efficiency in mechanical pot-seedling transplanting rice in 2019 and 2020.
Treatment | TNA (kg/hm2) | NPFP (kg/kg) | NHI | NRE (%) | NAE (kg/kg) |
---|---|---|---|---|---|
Wufengyou 615 in 2019 | |||||
CK | 111.49 c | 28.32 c | 0.59 a | - | - |
MDS | 182.56 a | 66.45 a | 0.61 a | 46.05 a | 28.12 a |
MBS | 146.97 b | 44.33 b | 0.59 a | 20.65 b | 14.01 b |
MD | 167.38 a | 68.33 a | 0.52 ab | 38.93 a | 22.01 ab |
MB | 119.88 c | 36.43 bc | 0.47 b | 16.59 c | 12.11 b |
Mean | 145.66 | 48.77 | 0.56 | 30.05 | 19.06 |
Yuxiangyouzhan in 2019 | |||||
CK | 96.65 c | 28.21 b | 0.47 b | - | - |
MDS | 171.88 a | 57.50 a | 0.56 a | 47.48 a | 19.29 a |
MBS | 117.92 c | 38.52 b | 0.53 ab | 18.18 b | 12.29 ab |
MD | 160.80 a | 52.73 a | 0.50 ab | 40.76 a | 16.52 a |
MB | 121.14 b | 31.76 b | 0.55 a | 20.32 b | 8.54 b |
Mean | 133.68 | 41.74 | 0.52 | 31.68 | 14.16 |
Wufengyou 615 in 2020 | |||||
CK | 110.92 d | 31.96 c | 0.56 ab | - | - |
MDS | 179.33 a | 58.73 a | 0.61 a | 45.60 a | 20.78 a |
MBS | 155.21 b | 42.53 b | 0.57 ab | 28.72 b | 10.57 b |
MD | 174.29 a | 56.70 a | 0.53 bc | 42.25 a | 18.74 a |
MB | 131.98 c | 40.73 b | 0.49 c | 18.04 c | 8.77 b |
Mean | 150.30 | 46.13 | 0.55 | 33.65 | 14.71 |
Yuxiangyouzhan in 2020 | |||||
CK | 104.04 c | 27.27 c | 0.49 b | - | - |
MDS | 172.68 a | 50.72 a | 0.57 a | 41.76 a | 20.45 a |
MBS | 133.02 b | 36.98 b | 0.52 b | 19.32 b | 9.71 b |
MD | 177.40 a | 51.23 a | 0.53 ab | 44.91 a | 20.96 a |
MB | 129.01 b | 33.65 b | 0.53 ab | 16.64 b | 9.38 b |
Mean | 143.23 | 39.97 | 0.53 | 30.66 | 15.13 |
Year (Y) | ns | ns | ns | ns | ns |
Cultivar (C) | * | ** | ns | ns | * |
Y × C | ns | ns | ns | ns | ns |
Trait | Yield | TAB | LAI | Chl | Pn | NR | GS | TNA | NRE |
---|---|---|---|---|---|---|---|---|---|
TAB | 0.81** | ||||||||
LAI | 0.68** | 0.74** | |||||||
Chl | 0.63** | 0.71** | 0.59** | ||||||
Pn | 0.60** | 0.73** | 0.53** | 0.80** | |||||
NR | 0.55* | 0.44* | 0.34 | 0.48* | 0.40 | ||||
GS | 0.51* | 0.31 | 0.48* | 0.29 | 0.44* | 0.39 | |||
TNA | 0.72** | 0.82** | 0.64** | 0.74** | 0.77** | 0.45* | 0.44* | ||
NRE | 0.67** | 0.77** | 0.67** | 0.72** | 0.77** | 0.56* | 0.69** | 0.90** | |
NAE | 0.71** | 0.74** | 0.49* | 0.67** | 0.70** | 0.53* | 0.55* | 0.83** | 0.77** |
Table 4. Correlation coefficients between grain yield and physiological traits for both rice cultivars in two years (means across years and cultivars).
Trait | Yield | TAB | LAI | Chl | Pn | NR | GS | TNA | NRE |
---|---|---|---|---|---|---|---|---|---|
TAB | 0.81** | ||||||||
LAI | 0.68** | 0.74** | |||||||
Chl | 0.63** | 0.71** | 0.59** | ||||||
Pn | 0.60** | 0.73** | 0.53** | 0.80** | |||||
NR | 0.55* | 0.44* | 0.34 | 0.48* | 0.40 | ||||
GS | 0.51* | 0.31 | 0.48* | 0.29 | 0.44* | 0.39 | |||
TNA | 0.72** | 0.82** | 0.64** | 0.74** | 0.77** | 0.45* | 0.44* | ||
NRE | 0.67** | 0.77** | 0.67** | 0.72** | 0.77** | 0.56* | 0.69** | 0.90** | |
NAE | 0.71** | 0.74** | 0.49* | 0.67** | 0.70** | 0.53* | 0.55* | 0.83** | 0.77** |
Item | Content |
---|---|
Soil property | Sandy loam |
Soil pH | 6.82 |
Soil organic carbon (g/kg) | 22.39 |
Available nitrogen (mg/kg) | 22.56 |
Available phosphorus (mg/kg) | 77.32 |
Exchangeable potassium (mg/kg) | 134.56 |
Total nitrogen (g/kg) | 1.26 |
Total phosphorus (g/kg) | 1.13 |
Total potassium (g/kg) | 21.56 |
Table 5. Basic soil physical and chemical properties of initial soils.
Item | Content |
---|---|
Soil property | Sandy loam |
Soil pH | 6.82 |
Soil organic carbon (g/kg) | 22.39 |
Available nitrogen (mg/kg) | 22.56 |
Available phosphorus (mg/kg) | 77.32 |
Exchangeable potassium (mg/kg) | 134.56 |
Total nitrogen (g/kg) | 1.26 |
Total phosphorus (g/kg) | 1.13 |
Total potassium (g/kg) | 21.56 |
[1] | Ashraf U, Hussain S, Sher A, Abrar M, Khan I, Anjum S A. 2018a. Planting geometry and herbicides for weed control in rice: Implications and challenges. In: Tadele Z. Grasses as Food and Feed. London, UK: Intech Open: 111-133. |
[2] | Ashraf U, Mo Z W, Tang X. 2018b. Direct seeded vs transplanted rice in Asia: Climatic effects, relative performance, and constraints, a comparative outlook. In: Verma D K, Srivastav P P, Nadaf A B. Agronomic Rice Practices and Postharvest Processing: Production and Quality Improvement. Apple Academic Press Inc: 27-76. |
[3] | Bhattacharyya P, Roy K S, Neogi S, Adhya T K, Rao K S, Manna M C. 2012. Effects of rice straw and nitrogen fertilization on greenhouse gas emissions and carbon storage in tropical flooded soil planted with rice. Soil Tillage Res, 124: 119-130. |
[4] | Chen S, Liu S W, Zheng X, Yin M, Chu G, Xu C M, Yan J X, Chen L P, Wang D Y, Zhang X F. 2018. Effect of various crop rotations on rice yield and nitrogen use efficiency in paddy-upland systems in southeastern China. Crop J, 6: 576-588. |
[5] | Chen Y Y, Fan P S, Mo Z W, Kong L L, Tian H, Duan M Y, Li L, Wu L J, Wang Z M, Tang X R, Pan S G. 2021. Deep placement of nitrogen fertilizer affects grain yield, nitrogen recovery efficiency, and root characteristics in direct-seeded rice in South China. J Plant Growth Regul, 40: 379-387. |
[6] | Datta A, Ullah H, Ferdous Z. 2017. Water management in rice. In: Chauhan B S, Jabran K, Mahajan G. Rice Production Worldwide. Cham: Springer International Publishing: 255-277. |
[7] | Du B, Luo H W, He L X, Zheng A X, Chen Y L, Zhang T T, Wang Z M, Hu L, Tang X R. 2018. Deep fertilizer placement improves rice growth and yield in zero tillage. Appl Ecol Environ Res, 16: 8045-8054. |
[8] | Eagle A J, Bird J A, Hill J E, Horwath W R, van Kessel C. 2001. Nitrogen dynamics and fertilizer use efficiency in rice following straw incorporation and winter flooding. Agron J, 93: 1346-1354. |
[9] | Gaihre Y K, Singh U, Islam S M M, Huda A, Islam M R, Satter M A, Sanabria J, Islam M R, Shah A L. 2015. Impacts of urea deep placement on nitrous oxide and nitric oxide emissions from rice fields in Bangladesh. Geoderma, 259: 370-379. |
[10] | Gaihre Y K, Singh U, Islam S M M, Huda A, Islam M R, Sanabria J, Satter M A, Islam M R, Biswas J C, Jahiruddin M, Jahan M S. 2018. Nitrous oxide and nitric oxide emissions and nitrogen use efficiency as affected by nitrogen placement in lowland rice fields. Nutr Cycl Agroecosyst, 110: 277-291. |
[11] | Haberman A, Dag A, Shtern N, Zipori I, Erel R, Ben-Gal A, Yermiyahu U. 2019. Long-term impact of potassium fertilization on soil and productivity in intensive olive cultivation. Agronomy, 9: 525. |
[12] | Hamoud Y A, Guo P X, Wang Z C, Shaghaleh H, Chen S, Hassan A, Bakour A. 2019. Effects of irrigation regime and soil clay content and their interaction on the biological yield, nitrogen uptake and nitrogen-use efficiency of rice grown in southern China. Agric Water Manage, 213: 934-946. |
[13] | Hu Y J, Xing Z P, Gong J L, Liu G T, Zhang H C, Dai Q G, Huo Z Y, Xu K, Wei H Y, Guo B W, Sha A, Zhou Y, Luo X C, Liu G L. 2014. Study on population characteristics and formation mechanisms for high yield of pot-seedling mechanical transplanting rice. Sci Agric Sin, 47: 865-879. (in Chinese with English abstract) |
[14] | Huda A, Gaihre Y K, Islam M R, Singh U, Islam M R, Sanabria J, Satter M A, Afroz H, Halder A, Jahiruddin M. 2016. Floodwater ammonium, nitrogen use efficiency and rice yields with fertilizer deep placement and alternate wetting and drying under triple rice cropping systems. Nutr Cycl Agroecosyst, 104: 53-66. |
[15] | Jensen C R, Battilani A, Plauborg F, Psarras G, Chartzoulakis K, Janowiak F, Stikic R, Jovanovic Z, Li G T, Qi X B, Liu F L, Jacobsen S E, Andersen M N. 2010. Deficit irrigation based on drought tolerance and root signalling in potatoes and tomatoes. Agric Water Manage, 98: 403-413. |
[16] | Jiang W T, Liu X H, Wang Y, Zhang Y, Qi W. 2018. Responses to potassium application and economic optimum K rate of maize under different soil indigenous K supply. Sustainability, 10(7): 2267-2277. |
[17] | Jin X X, Zuo Q, Ma W W, Li S, Shi J C, Tao Y Y, Zhang Y N, Liu Y, Liu X F, Lin S, Ben-Gal A. 2016. Water consumption and water-saving characteristics of a ground cover rice production system. J Hydrol, 540: 220-231. |
[18] | Ju X T, Xing G X, Chen X P, Zhang S L, Zhang L J, Liu X J, Cui Z L, Yin B, Christie P, Zhu Z L, Zhang Q F. 2009. Reducing environmental risk by improving N management in intensive Chinese agricultural systems. Proc Natl Acad Sci USA, 106: 3041-3046. |
[19] | Knight J, Deng Q H, Li S. 2011. The puzzle of migrant labour shortage and rural labour surplus in China. China Econ Rev, 22: 585-600. |
[20] | Li L, Zhang Z, Tian H, Mo Z W, Ashraf U, Duan M Y, Wang Z M, Wang S L, Tang X R, Pan S G. 2020. Roles of nitrogen deep placement on grain yield, nitrogen use efficiency, and antioxidant enzyme activities in mechanical pot-seedling transplanting rice. Agronomy, 10: 1252. |
[21] | Li L J, Wang J, Wu P, Huang H K, Jiang Y X. 2016. Effect of different nitrogen application on rice yield and N uptake of white soil under wheat straw turnover. J Plant Nutr Fert, 22(1): 254-262. (in Chinese with English abstract) |
[22] | Li T, Gao J S, Bai L Y, Wang Y N, Huang J, Kumar M, Zeng X B. 2019. Influence of green manure and rice straw management on soil organic carbon, enzyme activities, and rice yield in red paddy soil. Soil Tillage Res, 195: 104428. |
[23] | Li X F, Cheng J Q, Liang J, Chen M Y, Ren H R, Zhang H C, Huo Z Y, Xu K, Wei H Y, Guo B W. 2017. Effects of total straw returning and nitrogen application on grain yield and nitrogen absorption and utilization of machine transplanted japonica rice. Acta Agron Sin, 43: 912-924. (in Chinese with English abstract) |
[24] | Liao P, Huang S, van Gestel N C, Zeng Y J, Wu Z M, van Groenigen K J. 2018. Liming and straw retention interact to increase nitrogen uptake and grain yield in a double rice- cropping system. Field Crops Res, 216: 217-224. |
[25] | Linquist B A, Adviento-Borbe M A, Pittelkow C M, van Kessel C, van Groenigen K J. 2012. Fertilizer management practices and greenhouse gas emissions from rice systems: A quantitative review and analysis. Field Crops Res, 135: 10-21. |
[26] | Liu S P, Chen W L, Nie X T, Zhang H C, Dai Q G, Huo Z Y, Xu K. 2007. Effect of embedding depth on decomposition course of crop residues in rice-wheat system. J Plant Nutr Fert, 13(6): 1049-1053. (in Chinese with English abstract) |
[27] | Liu T Q, Fan D J, Zhang X X, Chen J, Li C F, Cao C G. 2015. Deep placement of nitrogen fertilizers reduces ammonia volatilization and increases nitrogen utilization efficiency in no-tillage paddy fields in central China. Field Crops Res, 184: 80-90. |
[28] | Liu Z L, Tao L Y, Liu T T, Zhang X H, Wang W, Song J M, Yu C L, Peng X L. 2019. Nitrogen application after low-temperature exposure alleviates tiller decrease in rice. Environ Exp Bot, 158: 205-214. |
[29] |
Masclaux C, Valadier M H, Brugière N, Morot-Gaudry J F, Hirel B. 2000. Characterization of the sink/source transition in tobacco (Nicotiana tabacum L.) shoots in relation to nitrogen management and leaf senescence. Planta, 211: 510-518.
PMID |
[30] | Mofijul Islam S M, Gaihre Y K, Shah A L, Singh U, Sarkar M I U, Satter M A, Sanabria J, Biswas J C. 2016. Rice yields and nitrogen use efficiency with different fertilizers and water management under intensive lowland rice cropping systems in Bangladesh. Nutr Cycl Agroecosyst, 106: 143-156. |
[31] | Mofijul Islam S M, Gaihre Y K, Biswas J C, Singh U, Ahmed M N, Sanabria J, Saleque M A. 2018a. Nitrous oxide and nitric oxide emissions from lowland rice cultivation with urea deep placement and alternate wetting and drying irrigation. Sci Rep, 8: 17623. |
[32] | Mofijul Islam S M, Gaihre Y K, Biswas J C, Jahan M S, Singh U, Adhikary S K, Satter M A, Saleque M A. 2018b. Different nitrogen rates and methods of application for dry season rice cultivation with alternate wetting and drying irrigation: Fate of nitrogen and grain yield. Agric Water Manage, 196: 144-153. |
[33] | Oanh N T K, Bich T L, Tipayarom D, Manadhar B R, Prapat P, Simpson C D, Sally Liu L S. 2011. Characterization of particulate matter emission from open burning of rice straw. Atmos Environ, 45: 493-502. |
[34] | Oumarou A A, Lu H S, Zhu Y H, Alhaj Hamoud Y, Sheteiwy M. 2019. The global trend of the net irrigation water requirement of maize from 1960 to 2050. Climate, 7: 124. |
[35] | Pan S G, Wen X C, Wang Z M, Ashraf U, Tian H, Duan M Y, Mo Z W, Fan P S, Tang X R. 2017. Benefits of mechanized deep placement of nitrogen fertilizer in direct-seeded rice in South China. Field Crops Res, 203: 139-149. |
[36] | Qu C S, Li B, Wu H S, Giesy J P. 2012. Controlling air pollution from straw burning in China calls for efficient recycling. Environ Sci Technol, 46: 7934-7936. |
[37] | Rasool G, Guo X P, Wang Z C, Chen S, Alhaj Hamoud Y, Javed Q. 2019. Response of fertigation under buried straw layer on growth, yield, and water-fertilizer productivity of Chinese cabbage under greenhouse conditions. Commun Soil Sci Plant Anal, 50: 1030-1043. |
[38] | Rodziewicz P, Swarcewicz B, Chmielewska K, Wojakowska A, Stobiecki M. 2014. Influence of abiotic stresses on plant proteome and metabolome changes. Acta Physiol Plant, 36: 1-19. |
[39] | Sarker M A Z, Murayama S, Akamine H. 2002. Effect of nitrogen fertilization on photosynthetic characters and dry matter production in F1 hybrids of rice (Oryza stativa L.). Plant Prod Sci 5: 131-138. |
[40] | Shaghaleh H, Xu X, Liu H, Wang S F, Alhaj Hamoud Y, Dong F H, Luo J Y. 2019. The effect of atmospheric pressure plasma pretreatment with various gases on the structural characteristics and chemical composition of wheat straw and applications to enzymatic hydrolysis. Energy, 176: 195-210. |
[41] | Singh Y, Singh B, Ladha J K, Khind C S, Gupta R K, Meelu O P, Pasuquin E. 2004. Long-term effects of organic inputs on yield and soil fertility in the rice-wheat rotation. Soil Sci Soc Am J, 68: 845-853. |
[42] | Su W, Lu J W, Wang W N, Li X K, Ren T, Cong R H. 2014. Influence of rice straw mulching on seed yield and nitrogen use efficiency of winter oilseed rape (Brassica napus L.) in intensive rice-oilseed rape cropping system. Field Crops Res, 159: 53-61. |
[43] | Tao Y, Chen Q, Peng S B, Wang W Q, Nie L X. 2016. Lower global warming potential and higher yield of wet direct-seeded rice in Central China. Agron Sustain Dev, 36: 24. |
[44] | Wang H H, Shen M X, Hui D F, Chen J, Sun G F, Wang X, Lu C Y, Sheng J, Chen L G, Luo Y Q, Zheng J C, Zhang Y F. 2019. Straw incorporation influences soil organic carbon sequestration, greenhouse gas emission, and crop yields in a Chinese rice (Oryza sativa L.)-wheat (Triticum aestivum L.) cropping system. Soil Till Res, 195: 104377. |
[45] | Wang L, Ashraf U, Chang C, Abrar M, Cheng X. 2019. Effects of silicon and phosphatic fertilization on rice yield and soil fertility. J Soil Sci Plant Nutr, 16: 1-9. |
[46] | Wu J, Guo X S, Wang Y Q, Xu Z Y, Lu J W. 2011. Decomposition characteristics of rapeseed and wheat straw under different water regimes and straw incorporating models. J Agric Environ, 9: 572-577. (in Chinese with English abstract) |
[47] | Xu X, Pang D W, Chen J, Luo Y L, Zheng M J, Yin Y P, Li Y X, Wang Z L. 2018. Straw return accompany with low nitrogen moderately promoted deep root. Field Crops Res, 221: 71-80. |
[48] | Xu Y Z, Nie L X, Buresh R J, Huang J L, Cui K H, Xu B, Gong W H, Peng S B. 2010. Agronomic performance of late-season rice under different tillage, straw, and nitrogen management. Field Crops Res, 115: 79-84. |
[49] | Yang C M, Yang L Z, Yang Y X, Ouyang Z. 2004. Rice root growth and nutrient uptake as influenced by organic manure in continuously and alternately flooded paddy soils. Agric Water Manage, 70: 67-81. |
[50] | Yang F K, He B L, Zhang L G, Zhang G P, Gao Y P. 2020. An approach to improve soil quality: A case study of straw incorporation with a decomposer under full film-mulched ridge- furrow tillage on the semiarid loess plateau. J Soil Sci Plant Nutr, 20: 125-138. |
[51] | Yao Y L, Zhang M, Tian Y H, Zhao M, Zhang B W, Zeng K, Zhao M, Yin B. 2018. Urea deep placement in combination with Azolla for reducing nitrogen loss and improving fertilizer nitrogen recovery in rice field. Field Crops Res, 218: 141-149. |
[52] | Zhang B, Pang C Q, Qin J T, Liu K L, Xu H, Li H X. 2013. Rice straw incorporation in winter with fertilizer N application improves soil fertility and reduces global warming potential from a double rice paddy field. Biol Fertil Soils, 49: 1039-1052. |
[53] | Zhang H, Xu Z Q, Hua X L, Wang Z Q, Yang J C. 2013. Effect of applying rapeseed cake fertilizer combined with inorganic nitrogen fertilizer on morphology and physiology of roots and yield of rice. Acta Agron Sin, 4: 87-94. (in Chinese with English abstract) |
[54] | Zhang L, Zheng J C, Chen L G, Shen M X, Zhang X, Zhang M Q, Bian X M, Zhang J, Zhang W J. 2015. Integrative effects of soil tillage and straw management on crop yields and greenhouse gas emissions in a rice-wheat cropping system. Eur J Agron, 63: 47-54. |
[55] | Zhang M, Yao Y L, Zhao M, Zhang B W, Tian Y H, Yin B, Zhu Z L. 2017. Integration of urea deep placement and organic addition for improving yield and soil properties and decreasing N loss in paddy field. Agric Ecosyst Environ, 247: 236-245. |
[56] | Zhang Y N, Liu M J, Dannenmann M, Tao Y Y, Yao Z S, Jing R Y, Zheng X H, Butterbach-Bahl K, Lin S. 2017. Benefit of using biodegradable film on rice grain yield and N use efficiency in ground cover rice production system. Field Crops Res, 201: 52-59. |
[57] | Zhao L M, Li M, Zheng D F, Gu C M, Na Y G, Xie B S. 2015. Effects of irrigation methods and rice planting densities on yield and photosynthetic characteristics of matter production in cold area. Trans Chin Soc Agric Eng, 31: 159-169. (in Chinese with English abstract) |
[58] | Zhu C C, Yang H J, Guan Y X, Chen Z. 2019. Research progress on green and high efficiency cultivation technique of rice pot seedling mechanical transplanting in Jiangsu Province. China Rice, 25: 37-41. (in Chinese with English abstract) |
[59] | Zhu C H, Xiang J, Zhang Y P, Zhang Y K, Zhu D F, Chen H Z. 2019. Mechanized transplanting with side deep fertilization increases yield and nitrogen use efficiency of rice in Eastern China. Sci Rep, 9: 5653. |
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