预测冲积山洪暴发时下水道沙井溢流的时态融合变压器模型

IF 3.1 Q2 WATER RESOURCES
Benjamin Burrichter, Juliana Koltermann da Silva, Andre Niemann, Markus Quirmbach
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引用次数: 0

摘要

本研究采用时间融合变换器(TFT)来预测暴雨期间下水道沙井的溢流情况。所使用的 TFT 能够预测沙井级别的溢流水文图,并在拥有 975 个沙井的下水道网络上进行了测试。作为调查的一部分,TFT 与其他深度学习架构进行了比较,以评估其预测性能。除了降水测量和预测外,还研究了额外考虑下水道网络中的测量结果作为模型输入对预测精度的影响。对不同数量的传感器和不同的测量信号进行了比较。结果表明,与其他模型架构(如长短期记忆(LSTM)网络或基于注意力的双级递归神经网络(DA-RNN))相比,TFT 的性能较高。此外,结果表明,考虑下水道网络出口处的单个测量点而不是整个测量网络会产生更好的预测结果。一种可能的解释是,测量值之间的相关性很高,这增加了模型和训练的复杂性,却没有增加多少价值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Temporal Fusion Transformer Model to Forecast Overflow from Sewer Manholes during Pluvial Flash Flood Events
This study employs a temporal fusion transformer (TFT) for predicting overflow from sewer manholes during heavy rainfall events. The TFT utilised is capable of forecasting overflow hydrographs at the manhole level and was tested on a sewer network with 975 manholes. As part of the investigations, the TFT was compared to other deep learning architectures to evaluate its predictive performance. In addition to precipitation measurements and forecasts, the issue of how the additional consideration of measurements in the sewer network as model inputs impacts forecast accuracy was investigated. A varying number of sensors and different measurement signals were compared. The results indicate high performance for the TFT compared to other model architectures like a long short-term memory (LSTM) network or a dual-stage attention-based recurrent neural network (DA-RNN). Additionally, results suggest that considering a single measuring point at the outlet of the sewer network instead of an entire measuring network yields better forecasts. One possible explanation is the high correlation between measurements, which increases model and training complexity without adding much value.
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来源期刊
Hydrology
Hydrology Earth and Planetary Sciences-Earth-Surface Processes
CiteScore
4.90
自引率
21.90%
发文量
192
审稿时长
6 weeks
期刊介绍: Journal of Hydrology publishes original research papers and comprehensive reviews in all the subfields of the hydrological sciences, including water based management and policy issues that impact on economics and society. These comprise, but are not limited to the physical, chemical, biogeochemical, stochastic and systems aspects of surface and groundwater hydrology, hydrometeorology, hydrogeology and hydrogeophysics. Relevant topics incorporating the insights and methodologies of disciplines such as climatology, water resource systems, ecohydrology, geomorphology, soil science, instrumentation and remote sensing, data and information sciences, civil and environmental engineering are within scope. Social science perspectives on hydrological problems such as resource and ecological economics, sociology, psychology and behavioural science, management and policy analysis are also invited. Multi-and interdisciplinary analyses of hydrological problems are within scope. The science published in the Journal of Hydrology is relevant to catchment scales rather than exclusively to a local scale or site. Studies focused on urban hydrological issues are included.
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