Machine learning-based hydrograph modeling with LSTM: A case study in the Jatigede Reservoir Catchment, Indonesia

Neil Andika , Piter Wongso , Faizal Immaddudin Wira Rohmat , Siska Wulandari , Ammar Fadhil , Riswanto Rosi , Nabila Siti Burnama
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Abstract

Predicting and comprehending river discharge is essential to Earth system science in order to manage water resources and preserve ecological sustainability. In data-scarce tropical regions, traditional hydrological models often face challenges due to limited observations and high variability in rainfall-runoff responses. This study explores the application of Long Short-Term Memory (LSTM) networks for hydrograph modeling in the Jatigede Reservoir Catchment, Indonesia, where satellite data is becoming more and more accessible, but gauging infrastructure is scarce. Utilizing 12 years of historical data, an LSTM model was developed to capture the complex non-linear dynamics between rainfall and runoff. The model successfully reproduced overall hydrograph patterns, obtaining a Nash-Sutcliffe Efficiency (NSE) of 0.60 and a Root Mean Squared Error (RMSE) of 12.16, while limitations were observed in simulating extreme hydrological events, primarily due to a lack of historical extreme event data. Sensitivity analysis revealed a significant decline in model performance when applied to a partial dataset, highlighting the importance of data representativeness in model calibration. While the LSTM model shows potential for surrogate hydrograph modeling in data-scarce regions, its ability to predict extreme events remains constrained. Future research should focus on incorporating additional extreme event data and enhancing model generalizability across diverse hydrological conditions.
基于机器学习的LSTM水文模型:以印度尼西亚Jatigede水库集水区为例
预测和理解河流流量是地球系统科学管理水资源和保持生态可持续性的必要条件。在数据匮乏的热带地区,由于观测数据有限和降雨径流响应的高变异性,传统水文模型往往面临挑战。本研究探讨了长短期记忆(LSTM)网络在印度尼西亚Jatigede水库集水区水文建模中的应用,该地区的卫星数据越来越容易获得,但测量基础设施却很少。利用12年的历史数据,建立了一个LSTM模型来捕捉降雨和径流之间复杂的非线性动态。该模型成功地再现了整体的水文模式,获得了0.60的纳什-苏特克利夫效率(NSE)和12.16的均方根误差(RMSE),但由于缺乏历史极端事件数据,在模拟极端水文事件方面存在局限性。敏感性分析显示,当应用于部分数据集时,模型性能显着下降,突出了数据代表性在模型校准中的重要性。虽然LSTM模型显示了在数据稀缺地区替代水文模型的潜力,但其预测极端事件的能力仍然有限。未来的研究应侧重于纳入更多的极端事件数据,并提高模型在不同水文条件下的可泛化性。
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