DocumentCode :
2232109
Title :
Water Demand Prediction Model Based on Radial Basis Function Neural Network
Author :
Chang Mingqi ; Liu Junping
Author_Institution :
Res. Inst. of Water Dev., Chang´an Univ., Xi´an, China
fYear :
2009
fDate :
26-28 Dec. 2009
Firstpage :
5295
Lastpage :
5298
Abstract :
Artificial Neural Network (ANN) simulates the structure and function of human brain. It has the abilities of parallel information processing, distributed storage and self-learning and reasoning. ANN features fault tolerance, nonlinearity, nonlocality, nonconvexity, etc., and is suitable for identifying and mapping fuzzy information or complex nonlinear relationship. Combined with the characteristics of domestic water consumption, industry water consumption and agriculture water consumption, the influencing factors are analyzed. A Radial Basis Function (RBF) Neural Network model is established for water demand prediction, using 17 water demand predication factors as input of the network. On output layer, the four nodes include urban household water demand, rural household water demand, industrial water demand and agricultural water demand. Dynamic Clustering Learning algorithm is used to determine RBF width, cluster center, number of nodes in hidden layer and weight. The number of hidden layer determined by network learning is 8. The relative error of three years are 2.74%, 3.33% and 1.41% respectively. The results show that RBF neural network has such advantages that the output is independent the initial weight value and the convergence speed is faster. And a better forecasting result is achieved through such a model.
Keywords :
agriculture; brain; fault tolerance; inference mechanisms; parallel processing; pattern clustering; radial basis function networks; ANN features; RBF neural network; agriculture water consumption; artificial neural network; complex nonlinear relationship; distributed storage; domestic water consumption; dynamic clustering learning algorithm; fault tolerance; human brain; industry water consumption; parallel information processing; radial basis function neural network; self-learning methods; water demand prediction model; Artificial neural networks; Brain modeling; Fault diagnosis; Fault tolerance; Humans; Industrial relations; Information processing; Predictive models; Radial basis function networks; Water;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Information Science and Engineering (ICISE), 2009 1st International Conference on
Conference_Location :
Nanjing
Print_ISBN :
978-1-4244-4909-5
Type :
conf
DOI :
10.1109/ICISE.2009.1343
Filename :
5455507
Link To Document :
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