通过偏差校正气象雷达数据推进水文建模:意大利阿尔卑斯山瓦尔格罗西纳案例研究

IF 3.2 3区 地球科学 Q1 Environmental Science Hydrological Processes Pub Date : 2024-11-25 DOI:10.1002/hyp.15339
Andrea Citrini, Georgia Lazoglou, Adriana Bruggeman, George Zittis, Giovanni P. Beretta, Corrado A. S. Camera
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引用次数: 0

摘要

由于气候变化对山区环境的影响日益加剧,了解水文循环错综复杂的投入产出关系变得更加迫切。本研究的重点是优化中阿尔卑斯山(意大利北部)一个筑坝山谷的水资源管理。研究旨在将雷达数据和降水插值技术(TIN、Copula、累积分布函数;CDF 技术、反距离加权;IDW、薄板样条;TPS、普通克里金法;OK 和去趋势克里金法;DK)整合到半分布式水文模型中,利用 22 个雨量计的每小时降水数据和跨度为 2010-2020 年的综合天气雷达产品。主要目标有两个(i) 根据基准数据集开发和评估各种雷达降水校正方法;(ii) 利用校正后的降水输入校准和评估 GEOFrame 水文模型的性能。通过留空测试,根据地面测量结果对基于点和空间的校正方法进行了评估。前者采用三角不规则网络,在有偏差的雷达序列和距离目标点最近的三个雨量计之间推导出依赖函数。后者将确定性和地理空间插值与雨量计/雷达残差相结合,通过将雷达值作为趋势纳入得出校正表面。超过基准数据集综合比例分值的降水序列被用作水文模型的输入。将雷达值与普通克里格法相结合的空间方法在校正和建模方面都取得了最佳结果(每小时 KGE > 0.75)。事实证明,空间方法比基于点的方法更容易应用。此外,降水校正显著改善了低流量模拟,使每小时 lnNSE 值从负值变为大于 0.25。鉴于空间方法的总体性能良好,下一步可将其作为一个整体用于分析管理方案。
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Advancing Hydrologic Modelling Through Bias Correcting Weather Radar Data: The Valgrosina Case Study in the Italian Alps

The urgency of understanding the intricate input–output relationships of the hydrologic cycle is amplified by the accelerating climate change impacts in mountain environments. This study focuses on optimising water resource management of a dammed valley in the Central Alps (Northern Italy). The research aims to integrate radar data and precipitation interpolation techniques (TIN, Copula, cumulative distribution function; CDF techniques, inverse distance weighting; IDW, thin plate spline; TPS, ordinary kriging; OK and detrended kriging; DK) into a semi-distributed hydrologic model, by utilising hourly precipitation data from 22 rain gauges and a composite weather radar product spanning 2010–2020. Two main objectives were pursued: (i) to develop and evaluate various radar precipitation correction methods against a benchmark dataset and (ii) to calibrate and assess the performance of the GEOFrame hydrologic model forced with corrected precipitation input. Point-based and spatial correction approaches were evaluated against ground measurements through leave-one-out tests. The former derives dependence functions between the biased radar series and those of the closest three rain gauges to the target point applying a triangular irregular network. The latter combines deterministic and geospatial interpolations to the rain gauge/radar residuals to derive a corrected surface by incorporating radar values as trends. Precipitation series exceeding the composite scaled score of the benchmark dataset were used as input for hydrologic modelling. The spatial method combining radar values with ordinary kriging provided the best results for both correction and modelling (hourly KGE > 0.75). The spatial approaches proved easier to apply than the point-based methods. In addition, correcting precipitation significantly improved low-flow simulation from negative hourly lnNSE to values greater than 0.25. As a further step, given the overall good performance of the spatial methods, they could be used operationally as an ensemble to analyse management scenarios.

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来源期刊
Hydrological Processes
Hydrological Processes 环境科学-水资源
CiteScore
6.00
自引率
12.50%
发文量
313
审稿时长
2-4 weeks
期刊介绍: Hydrological Processes is an international journal that publishes original scientific papers advancing understanding of the mechanisms underlying the movement and storage of water in the environment, and the interaction of water with geological, biogeochemical, atmospheric and ecological systems. Not all papers related to water resources are appropriate for submission to this journal; rather we seek papers that clearly articulate the role(s) of hydrological processes.
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