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Responses of wheat growth and yield to climate change in different climate zones of China, 1981–2009

•Experiment data on phenology and yield at 120 stations between 1981and 2009 were used.•Crop system dynamics were accounted for when quantifying climatic impacts on yield.•Anthesis date and maturity date advanced and whole growth period was shortened.•Reproductive growth duration was prolonged despi...

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Published in:Agricultural and forest meteorology 2014-06, Vol.189-190, p.91-104
Main Authors: Tao, Fulu, Zhang, Zhao, Xiao, Dengpan, Zhang, Shuai, Rötter, Reimund P., Shi, Wenjiao, Liu, Yujie, Wang, Meng, Liu, Fengshan, Zhang, He
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cited_by cdi_FETCH-LOGICAL-c411t-4abccbda2fda6a5fbab7c63855de7a32b1259378c1afbafd70991b8b26d0b75e3
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container_title Agricultural and forest meteorology
container_volume 189-190
creator Tao, Fulu
Zhang, Zhao
Xiao, Dengpan
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Liu, Yujie
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Liu, Fengshan
Zhang, He
description •Experiment data on phenology and yield at 120 stations between 1981and 2009 were used.•Crop system dynamics were accounted for when quantifying climatic impacts on yield.•Anthesis date and maturity date advanced and whole growth period was shortened.•Reproductive growth duration was prolonged despite of negative impact of climate.•Climate change increased yield in northern China however reduced it southern China. The experiment observations at 120 agricultural meteorological stations spanning from 1981 to 2009 across China were used to accelerate understandings of the response of wheat growth and productivity to climate change in different climate zones, with panel regression models. We found climate during wheat growth period had changed significantly during 1981–2009, and the change had caused measurable impacts on wheat growth and yield in most of the zones. Wheat anthesis date and maturity date advanced significantly, and the lengths of growth period before anthesis and whole growth period were significantly shortened, however the length of reproductive growth period was significantly prolonged despite of the negative impacts of temperature increase. The increasing adoption of cultivars with longer reproductive growth period offset the negative impacts of climate change and increased yield. Changes in temperature, precipitation and solar radiation in the past three decades jointly increased wheat yield in northern China by 0.9–12.9%, however reduced wheat yield in southern China by 1.2–10.2%, with a large spatial difference. Our studies better represented crop system dynamics using detailed phenological records, consequently better accounted for adaptations such as shifts in sowing date and crop cultivars photo-thermal traits when quantifying climate impacts on wheat yield. Our findings suggest the response of wheat growth and yield to climate change is underway in China. The changes in crop system dynamics and cultivars traits have to be sufficiently taken into account to improve the prediction of climate impacts and to plan adaptations for future.
doi_str_mv 10.1016/j.agrformet.2014.01.013
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The experiment observations at 120 agricultural meteorological stations spanning from 1981 to 2009 across China were used to accelerate understandings of the response of wheat growth and productivity to climate change in different climate zones, with panel regression models. We found climate during wheat growth period had changed significantly during 1981–2009, and the change had caused measurable impacts on wheat growth and yield in most of the zones. Wheat anthesis date and maturity date advanced significantly, and the lengths of growth period before anthesis and whole growth period were significantly shortened, however the length of reproductive growth period was significantly prolonged despite of the negative impacts of temperature increase. The increasing adoption of cultivars with longer reproductive growth period offset the negative impacts of climate change and increased yield. Changes in temperature, precipitation and solar radiation in the past three decades jointly increased wheat yield in northern China by 0.9–12.9%, however reduced wheat yield in southern China by 1.2–10.2%, with a large spatial difference. Our studies better represented crop system dynamics using detailed phenological records, consequently better accounted for adaptations such as shifts in sowing date and crop cultivars photo-thermal traits when quantifying climate impacts on wheat yield. Our findings suggest the response of wheat growth and yield to climate change is underway in China. 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ispartof Agricultural and forest meteorology, 2014-06, Vol.189-190, p.91-104
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1873-2240
language eng
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source ScienceDirect Freedom Collection
subjects Adaptation
Agricultural and forest climatology and meteorology. Irrigation. Drainage
Agriculture
Agronomy. Soil science and plant productions
Biological and medical sciences
China
Climate
Climate change
Crop
Crops
Fundamental and applied biological sciences. Psychology
General agronomy. Plant production
Impact and adaptation
Phenology
Precipitation
System dynamics
Triticum aestivum
Wheat
Yield
title Responses of wheat growth and yield to climate change in different climate zones of China, 1981–2009
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