Scientia Agricultura Sinica ›› 2026, Vol. 59 ›› Issue (11): 2340-2357.doi: 10.3864/j.issn.0578-1752.2026.11.004

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

Effects of Partial Organic Fertilizer Substitution and Plastic Film Mulching on Root Growth, Yield, and Water Use Efficiency of Spring Wheat in Dryland

WEI WenLong1,2(), WANG LinLin1,2(), CHEN XiaoLi1,3, WU LingBin1,2, LI LuFang1,2, XIE YunTing1,2, WANG JiangWen1,2   

  1. 1 Gansu Agricultural University/Provincial-Ministerial Key Laboratory of Crop Science in Arid Habitat, Lanzhou 730070
    2 College of Agriculture, Gansu Agricultural University, Lanzhou 730070
    3 Inner Mongolia Autonomous Region Farming and Animal Husbandry Technology Extension Center, Hohhot 010010
  • Received:2025-11-13 Accepted:2026-04-10 Online:2026-06-01 Published:2026-06-03
  • Contact: WANG LinLin

Abstract:

【Objective】This study aimed to investigate the regulatory mechanisms of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on yield and water use efficiency (WUE) of spring wheat in dryland, and to provide a theoretical basis for high-yield and efficient production of spring wheat in the rainfed farming areas of the Loess Plateau.【Method】A field experiment was conducted in Dingxi city, Gansu province, from 2023 to 2025, with four treatments established: chemical fertilizer only (NP, supplying 105 kg·N hm-2 and 105 kg P2O5·hm-2), partial substitution of chemical fertilizer with organic fertilizer (MNP, supplying 80 kg N·hm-2 and 88 kg P2O5·hm-2, plus 8 500 kg·hm-2 of composted sheep manure, corresponding to approximately 23.8% and 16.2% substitution of chemical N and P2O5, respectively), chemical fertilizer combined with plastic film mulching (FNP), and the combined application of organic substitution and film mulching (FMNP). The effects of these treatments on root traits, stage-specific water use, dry matter accumulation, yield, and water use efficiency (WUE) of spring wheat were investigated.【Result】Film mulching treatments (FNP and FMNP) significantly enhanced soil water storage at sowing compared to non-mulched treatments (NP and MNP), with an average increase of 23.7 mm. In contrast, organic substitution without film mulching (MNP) did not exert a significant effect on soil water storage. Relative to NP treatment, FNP and FMNP significantly increased root length density in the 0-20 cm soil layer at maturity by 25.7% and 22.0%, and in the 60-140 cm layer by 33.7% and 45.9%, respectively. Water consumption during the jointing-flowering stage was significantly increased by 16.8% and 24.5%, and the stage-specific water use efficiency was correspondingly enhanced by 34.3% and 35.0% for FNP and FMNP compared to NP. Leaf area index (LAI) was significantly elevated by 12.5%, 30.2%, and 38.7% for MNP, FNP, and FMNP, respectively, compared with NP. Moreover, aboveground dry matter accumulation at maturity was significantly increased by 35.1% and 40.5% for FNP and FMNP, respectively, averaged over the two-year period. Compared with the NP treatment, the FNP and FMNP treatments significantly increased grain yield by 47.0% and 58.7%, respectively, and water use efficiency for grain yield (WUEg) by 31.3% and 41.7% on average, respectively. In contrast, the MNP treatment did not significantly improve grain yield or WUEg relative to NP. Random forest and structural equation modeling analyses indicated that the combined application of organic substitution and film mulching affected root traits, which in turn regulated stage-specific water use and dry matter partitioning, thereby significantly influencing yield and WUEg.【Conclusion】These results demonstrate that the integration of partial organic fertilizer substitution with plastic film mulching optimizes root architecture, enhances water use during the jointing-flowering stage, increases biomass accumulation, reduces the root-to-shoot ratio, and promotes the allocation of photosynthetic assimilates to grains, ultimately improving both grain yield and water use efficiency of spring wheat in dryland.

Key words: spring wheat, partial substitution of chemical fertilizer with organic fertilizer, plastic film mulching, root growth, yield, water use efficiency

Fig. 1

Monthly precipitation at the experimental site during the experiment"

Table 1

The experimental design in this study"

处理Treatment 氮肥Nitrogen fertilizer (kg·hm-2) 磷肥Phosphorus fertilizer (kg·hm-2) 有机肥Organic fertilizer (kg·hm-2)
NP 105 105 0
MNP 80 88 8500
FNP 105 105 0
FMNP 80 88 8500

Fig. 2

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on soil water storage in the 0-200 cm soil layer The vertical error bars representthe LSD0.05 value. The same as below"

Fig. 3

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on water use efficiency at different growth stages JET: Water consumption from sowing to jointing stage; FET: Water consumption from jointing to flowering stage; GET: Water consumption from flowering to maturity stage; JWUEb: Stage water use efficiency from sowing to jointing stage; FWUEb: Stage water use efficiency from jointing to flowering stage; GWUEb: Stage water use efficiency from flowering to maturity stage. Different lowercase letters in the figure indicate significant differences among indicators at the P<0.05 level. The same as below"

Fig. 4

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on root length density at different growth stages"

Fig. 5

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on total root length at different growth stages"

Fig. 6

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on leaf area index (LAI) and aboveground dry matter accumulation (DMA) of spring wheat DMA: Aboveground dry matter accumulation"

Fig. 7

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on root dry weight and root-to-shoot ratio (R/S) of spring wheat"

Table 2

Effects of partial substitution of chemical fertilizer with organic fertilizer and plastic film mulching on yield traits, yield and water use efficiency of spring wheat"

年份
Year
处理
Treatment
耗水量
ETc
(mm)
穗数
Number of spikes
(spike/m2)
穗粒数
Grains
per spike
千粒重
TGW
(g)
生物量水分利用效率
WUEb
(kg·hm-2·mm-1)
收获指数
Harvest
index (%)
籽粒产量水分利用效率
WUEg
(kg·hm-2·mm-1)
籽粒产量
Grain
yield
(kg·hm-2)
产量协同效应SEGY
(%)
水分利用效率协同效应
SEWUE (%)
2024 NP 349±22b 395±21ab 24.6±1.5c 39.0±2.1a 14.3±0.9b 33.9±2.4a 4.8±0.3c 1688±115b
MNP 373±22ab 382±23b 25.5±2.2bc 41.7±3.3a 13.7±1.0b 35.7±2.4a 4.9±0.2c 1814±130b
FNP 394±23a 426±29a 28.4±1.8ab 38.2±2.9a 17.2±1.1a 36.3±2.3a 6.2±0.3b 2450±108a
FMNP 381±21ab 429±13a 31.8±1.7a 37.4±2.8a 18.2±1.2a 38.0±2.4a 6.9±0.4a 2631±126a 6.2 40.0
2025 NP 366±20c 412±14b 26.0±1.6b 42.1±2.3a 13.9±1.0c 34.6±2.2b 4.8±0.3b 1759±97d
MNP 380±16bc 426±15ab 27.7±1.9b 43.1±2.8a 14.8±1.3bc 34.9±2.3ab 5.2±0.5b 1965±109c
FNP 409±19ab 444±19ab 31.7±2.1a 41.4±2.4a 16.7±0.9ab 38.3±2.6ab 6.4±0.3a 2617±102b
FMNP 421±18a 449±18a 33.0±2.0a 40.6±2.4a 17.1±0.9a 39.4±2.4a 6.7±0.3a 2840±104a 1.6 -5.0
平均
Average
NP 358±21b 404±18b 25.3±1.6c 40.6±2.6a 14.1±0.9b 34.3±2.1c 4.8±0.3c 1724±103c
MNP 377±18ab 404±30b 26.6±2.2c 42.4±2.8a 14.3±1.2b 35.3±2.1bc 5.0±0.4c 1890±135c
FNP 402±21a 435±24a 30.1±2.5b 39.8±3.0a 17.0±0.9a 37.3±2.5ab 6.3±0.3b 2534±131b
FMNP 401±28a 439±18a 32.4±1.8a 39.0±2.9a 17.7±1.1a 38.7±2.3a 6.8±0.3a 2736±154a 3.7 17.6
年份Year (Y) * ** ** ** * ns ns **
有机替代Organic substitution (OR) ns ns ** ns * ** ** **
地膜覆盖Film mulching (FM) ** ** ** ns ** ** ** **
Y×OR ns ** ns ns ns ns ns ns
Y×FM ns * ns ns ** * ns ns
OR×FM ns ns ns ns ns ns * ns
Y×OR×FM ns * ns ns ns ns ns ns

Fig. 8

Relative importance of spring wheat growth indicators to grain yield (GY) and water use efficiency (WUEg) analyzed based on the random forest algorithm ET: Water consumption; SN: Number of spikes; GNS: Grains per spike; TGW: Thousand-grain weight; HI: Harvest index; JBY: Jointing stage biomass; FBY: Flowering stage biomass; MBY: Maturity stage biomass; PDMA: Post-flowering biomass accumulation; JWUEb: Water use efficiency from sowing to jointing; FWUEb: Water use efficiency from jointing to flowering; MWUEb: Water use efficiency from flowering to maturity; WUEb: Biomass water use efficiency; JLAI: Leaf area index at jointing stage; FLAI: Leaf area index at flowering stage; JRDW: Root dry weight at jointing stage; FRDW: Root dry weight at flowering stage; MRDW: Root dry weight at maturity; JR/S: Root-to-shoot ratio at jointing stage; FR/S: Root-to-shoot ratio at flowering stage; MR/S: Root-to-shoot ratio at maturity; JRL: Root length at jointing stage; FRL: Root length at flowering stage; MRL: Root length at maturity; JRLD: Root length density at jointing stage; FRLD: Root length density at flowering stage; MRLD: Root length density at maturity; GY: Grain yield; WUEg: Grain yield water use efficiency; SR: Growing season rainfall; AR: Annual rainfall. *** indicates significant effects at the 0.001 probability level. The same as below"

Fig. 9

Partial least squares path modeling (PLS-PM) analysis showing the relationships between each indicator and yield and WUE A: The effects of precipitation, soil management measures, root traits, stage water consumption, biomass accumulation, root-to-shoot ratio, stage water use efficiency, and yield components on spring wheat yield and water use efficiency; B: Standardized effects based on segmented structural equation modeling including direct and indirect effects"

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