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估计的每日全球太阳辐射数据对作物生长模型结果的影响。

Effect of Estimated Daily Global Solar Radiation Data on the Results of Crop Growth Models.

作者信息

Trnka Miroslav, Eitzinger Josef, Kapler Pavel, Dubrovský Martin, Semerádová Daniela, Žalud Zdeněk, Formayer Herbert

机构信息

Institute of Agrosystems and Bioclimatology (217), Mendel University of Agriculture and Forestry, Zemedelska 1, 613 00 Brno, Czech Republic.

Institute for Meteorology, University of Natural Resources and Applied Life Sciences, Peter Jordan St. 82, A-1190 Vienna, Austria.

出版信息

Sensors (Basel). 2007 Oct 16;7(10):2330-2362. doi: 10.3390/s7102330.

DOI:10.3390/s7102330
PMID:28903230
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3864525/
Abstract

The results of previous studies have suggested that estimated daily globalradiation (R) values contain an error that could compromise the precision of subsequentcrop model applications. The following study presents a detailed site and spatial analysis ofthe R error propagation in CERES and WOFOST crop growth models in Central Europeanclimate conditions. The research was conducted i) at the eight individual sites in Austria andthe Czech Republic where measured daily R values were available as a reference, withseven methods for R estimation being tested, and ii) for the agricultural areas of the CzechRepublic using daily data from 52 weather stations, with five R estimation methods. In thelatter case the R values estimated from the hours of sunshine using the ångström-Prescottformula were used as the standard method because of the lack of measured R data. At thesite level we found that even the use of methods based on hours of sunshine, which showedthe lowest bias in R estimates, led to a significant distortion of the key crop model outputs.When the ångström-Prescott method was used to estimate R, for example, deviationsgreater than ±10 per cent in winter wheat and spring barley yields were noted in 5 to 6 percent of cases. The precision of the yield estimates and other crop model outputs was lowerwhen R estimates based on the diurnal temperature range and cloud cover were used (mean bias error 2.0 to 4.1 per cent). The methods for estimating R from the diurnal temperature range produced a wheat yield bias of more than 25 per cent in 12 to 16 per cent of the seasons. Such uncertainty in the crop model outputs makes the reliability of any seasonal yield forecasts or climate change impact assessments questionable if they are based on this type of data. The spatial assessment of the R data uncertainty propagation over the winter wheat yields also revealed significant differences within the study area. We found that R estimates based on diurnal temperature range or its combination with daily total precipitation produced a bias of to 30 per cent in the mean winter wheat grain yields in some regions compared with simulations in which R values had been estimated using the ångström-Prescott formula. In contrast to the results at the individual sites, the methods based on the diurnal temperature range in combination with daily precipitation totals showed significantly poorer performance than the methods based on the diurnal temperature range only. This was due to the marked increase in the bias in R estimates with altitude, longitude or latitude of given region. These findings in our view should act as an incentive for further research to develop more precise and generally applicable methods for estimating daily R based more on the underlying physical principles and/or the remote sensing approach.

摘要

先前研究的结果表明,全球每日辐射量(R)的估算值存在误差,这可能会影响后续作物模型应用的精度。以下研究详细介绍了中欧气候条件下,CERES和WOFOST作物生长模型中R误差传播的站点和空间分析。该研究在以下两种情况下进行:i)在奥地利和捷克共和国的八个单独站点开展,这些站点有每日辐射量的实测值作为参考,共测试了七种估算R的方法;ii)针对捷克共和国的农业区域,使用来自52个气象站的每日数据,共测试了五种估算R的方法。在后一种情况下,由于缺乏辐射量的实测数据,使用基于日照时数并通过安斯特罗姆 - 普雷斯科特公式估算的辐射量值作为标准方法。在站点层面,我们发现即使使用基于日照时数的方法(该方法在辐射量估算中偏差最小),也会导致关键作物模型输出出现显著偏差。例如,当使用安斯特罗姆 - 普雷斯科特方法估算辐射量时,在5%至6%的情况下,冬小麦和春大麦产量的偏差超过±10%。当使用基于日温差和云量估算的辐射量时,产量估算和其他作物模型输出的精度较低(平均偏差误差为2.0%至4.1%)。基于日温差估算辐射量的方法在12%至16%的季节中,会使小麦产量偏差超过25%。如果基于此类数据进行任何季节性产量预测或气候变化影响评估,作物模型输出中的这种不确定性会使这些评估的可靠性受到质疑。对冬小麦产量上辐射量数据不确定性传播的空间评估也揭示了研究区域内存在显著差异。我们发现,与使用安斯特罗姆 - 普雷斯科特公式估算辐射量值的模拟相比,基于日温差或其与日总降水量的组合估算的辐射量,在某些地区冬小麦平均籽粒产量上产生了高达30%的偏差。与单个站点的结果不同,基于日温差与日降水量总和的方法表现明显不如仅基于日温差的方法。这是由于给定区域内,随着海拔、经度或纬度的变化,辐射量估算偏差显著增加。我们认为,这些发现应促使开展进一步研究,以开发更精确且普遍适用的方法,更多地基于基本物理原理和/或遥感方法来估算每日辐射量。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/5f90/3864525/6b2d087b8171/sensors-07-02330f5.jpg
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