R2RNet:用于水位预报和洪水预报的深度时空降雨网络

IF 5 2区 地球科学 Q1 WATER RESOURCES
Sakshi Dhankhar, Stefan Wittek, Hamidreza Eivazi, Andreas Rausch
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引用次数: 0

摘要

研究区域:德国下萨克森州Goslar和Göttingen。研究重点:2017年7月,Goslar市和Göttingen市经历了严重的区域性洪水事件,预警时间短,只有20分钟,损失严重。这凸显了对更可靠、更及时的洪水预报系统的迫切需求。本文综合研究了雷达降水数据对Goslar和Göttingen河流水位预报的影响。该分析将雷达衍生的时空降水模式与从地面站获得的水文传感器数据相结合,以评估该方法在提高洪水预测能力方面的有效性。该地区的水文新见解:本文的一个关键创新是使用基于残差的建模来解决降水图像和水位之间的非线性,从而产生带有残差校正的Rain2RiverNetwork (R2RNet)。深度学习架构将用于时空特征提取的(2+1)D卷积神经网络与用于时间序列预测的LSTM相结合。我们的评估结果表明,R2RNet在提前4小时捕获极端事件方面具有良好的预测精度,Nash-Sutcliffe效率=0.93,Bravais-Pearson =0.98,一致性指数=0.99。这些结果与使用上游数据进行预测的传统模型相当,NSE=0.95, BP=0.97, IoA=0.98。这些结果在定量上强调了R2RNet增强的预测能力,使其独立于额外的上游水文测量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

R2RNet: A deep spatiotemporal RaintoRiverNetwork for water level prediction and flood forecasting

R2RNet: A deep spatiotemporal RaintoRiverNetwork for water level prediction and flood forecasting

Study Region:

Goslar and Göttingen, Lower Saxony, Germany.

Study Focus:

In July 2017, the cities of Goslar and Göttingen experienced severe regional flood events characterized by short warning time of only 20 min with a significant damage. This highlights the critical need for a more reliable and timely flood forecasting system. This paper presents a comprehensive study on the impact of radar-based precipitation data on forecasting river water levels in Goslar and Göttingen. The analysis integrates radar-derived spatiotemporal precipitation patterns with hydrological sensor data obtained from ground stations to evaluate the effectiveness of this approach in improving flood prediction capabilities.

New Hydrological Insights for the Region:

A key innovation in this paper is the use of residual-based modeling to address the non-linearity between precipitation images and water levels, leading to a Rain2RiverNetwork with residual-corrections (R2RNet). The deep learning architecture integrates (2+1)D convolutional neural networks for spatial and temporal feature extraction with LSTM for timeseries forecasting. The results of our evaluation demonstrate the potential of R2RNet for capturing extreme events with good prediction accuracy for 4-hours ahead as Nash–Sutcliffe efficiency=0.93, Bravais–Pearson=0.98 and Index of Agreement=0.99. These results are comparable to the conventional model using upstream data for predictions, with NSE=0.95, BP=0.97 and IoA=0.98. These results quantitatively underscore the enhanced predictive capability of R2RNet, making it independent of additional hydrological upstream measurements.
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来源期刊
Journal of Hydrology-Regional Studies
Journal of Hydrology-Regional Studies Earth and Planetary Sciences-Earth and Planetary Sciences (miscellaneous)
CiteScore
6.70
自引率
8.50%
发文量
284
审稿时长
60 days
期刊介绍: Journal of Hydrology: Regional Studies publishes original research papers enhancing the science of hydrology and aiming at region-specific problems, past and future conditions, analysis, review and solutions. The journal particularly welcomes research papers that deliver new insights into region-specific hydrological processes and responses to changing conditions, as well as contributions that incorporate interdisciplinarity and translational science.
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