• Sorted by Date • Sorted by Last Name of First Author •
Jia, Chengru, Sun, Shikun, Liang, Yongshan, Shen, Ruihua, Zhao, Jinfeng, Yin, Yali, Wang, Yubao, and Zhao, Xining, 2026. The Effects of Planting Structure on Groundwater Depletion and Optimization Strategies in the North China Plain. Water Resources Research, 62(2):e2025WR041114, doi:10.1029/2025WR041114.
• from the NASA Astrophysics Data System • by the DOI System •
@ARTICLE{2026WRR....6241114J,
author = {{Jia}, Chengru and {Sun}, Shikun and {Liang}, Yongshan and {Shen}, Ruihua and {Zhao}, Jinfeng and {Yin}, Yali and {Wang}, Yubao and {Zhao}, Xining},
title = "{The Effects of Planting Structure on Groundwater Depletion and Optimization Strategies in the North China Plain}",
journal = {Water Resources Research},
keywords = {GRACE, groundwater, north China plain, optimized planting structure},
year = 2026,
month = feb,
volume = {62},
number = {2},
eid = {e2025WR041114},
pages = {e2025WR041114},
abstract = "{Planting structure drive agricultural water use and is critical to
groundwater depletion in the North China Plain (NCP). However,
the effects of planting structure changes on groundwater
depletion are rarely quantified, and severely depleted areas are
often overlooked in previous planting structure optimization
studies. This study developed a groundwater stress index (GWSI)
to assess current groundwater drought and future risks and
identify high groundwater stress zones (HGSZ). Groundwater
depletion was estimated by integrating land surface model and
AquaCrop outputs. A structural equation model was developed to
assess the effects of planting structure to groundwater
depletion, and a GWSI-based optimization model was proposed to
alleviate groundwater depletion, particularly in HGSZ. Results
identified an HGSZ near the HenanâHebei border, where the
groundwater decline rate ({\ensuremath{-}}21.90 mm/year) was
more than twice the NCP average ({\ensuremath{-}}8.73 mm/year).
Under present planting structures, groundwater use remained
unsustainable, with annual consumption exceeding recharge by
46.53 mm/year across the NCP and 97.09 mm/year in the HGSZ.
Depletion was primarily affected by the planting area and
spatial dispersion of winter wheat. Planting area expansion
mitigated the effect of spatial redistribution on groundwater
depletion, and it varied by crop. The optimization model reduced
net groundwater depletion by 30.61 mm/year in the NCP and 63.23
mm/year in the HGSZ. The results highlighted the need to adjust
planting structures, and revealed the effects to groundwater
depletion, and demonstrated that partially converting rotation
areas to single-season cropping and shifting the rest
southeastward effectively alleviated groundwater depletion.
These findings provided an evidence base for designing region-
specific groundwater-resource management strategies in the NCP.}",
doi = {10.1029/2025WR041114},
adsurl = {https://ui.adsabs.harvard.edu/abs/2026WRR....6241114J},
adsnote = {Provided by the SAO/NASA Astrophysics Data System}
}
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