使用与混合粒子群优化和萤火虫算法相结合的改进型 SVR 模型预测地下水位

Sandeep Samantaray , Abinash Sahoo , Falguni Baliarsingh
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引用次数: 0

摘要

由于人口增长和工业化带来的大都市区的迅速扩大,对水资源的需求也随之增加。此外,城市发展导致的土地利用模式转变也影响了地下水的补给。面对不断变化的气候环境,使用精确、可靠的地下水位估算值对于可持续的地下水资源管理至关重要。在这种情况下,机器学习(ML)方法为准确预测地下水位(GWL)的长期变化提供了一种新的、有前途的方法,而无需开发综合流量模型的计算工作。为了模拟 GWL,本研究考察了五种数据驱动(DD)模型,包括支持向量回归(SVR)与两种优化算法(即萤火虫算法和粒子群优化(FFAPSO)、SVR-FFA、SVR-PSO、SVR 和多层感知(MLP))的混合。为了研究和评估水位,利用空间聚类在 Cuttack 地区选择了四口观测井。通过将前几个月的 GWL、蒸散量、温度、降水量和河流排水量等众多变量结合在一起,创建了六种情景。目的是找出在预测 GWL 方面最有效的变量。根据定量分析,在训练阶段,SVR-FFAPSO 模型在昆图尼站的 GWL 预测中表现最佳,相关系数 (R) = 0.9978,Nash-Sutcliffe 效率 (NSE) = 0.9933,平均绝对误差 (MAE) = 0.00025(米),均方根误差 (RMSE) = 0.00775(米)。建议印度加强地下水监测网络和数据收集系统,以确保地下水资源长期管理的有效建模。
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Groundwater level prediction using an improved SVR model integrated with hybrid particle swarm optimization and firefly algorithm

The demand for water resources has increased due to rapid increase of metropolitan areas brought on by growth in population and industrialisation. In addition, the groundwater recharge is being afftected by shifting land use pattern caused by urban development. Using precise and trustworthy estimates of groundwater level is vital for the sustainable groundwater resources management in the face of changing climatic circumstances. In this context, machine learning (ML) methods offer a new and promising approach for accurately forecasting long-term changes in the groundwater level (GWL) without computational effort of developing a comprehensive flow model. In order to simulate GWL, five data-driven (DD) models, including the hybridization of support vector regression (SVR) with two optimisation algorithms i.e., firefly algorithm and particle swarm optimisation (FFAPSO), SVR-FFA, SVR-PSO, SVR and Multilayer perception (MLP), have been examined in the present study. Spatial clustering was utilised to choose four observation wells within Cuttack district in order to study and assess the water levels. Six scenarios were created by incorporating numerous variables, such as GWL in the previous months, evapotranspiration, temperature, precipitation, and river discharge. The goal was to identify the variables that were most efficient in predicting GWL. The SVR-FFAPSO model performs best in GWL forecasting for Khuntuni station, according to the quantitative analysis with correlation coefficient (R) = 0.9978, Nash–Sutcliffe efficiency (NSE) = 0.9933, mean absolute error (MAE) = 0.00025 (m), root mean squared error (RMSE) = 0.00775 (m) during the training phase. It is advised that groundwater monitoring network and data collecting system are strengthen in India for ensuring effective modelling of long-term management of groundwater resources.

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