Application of neural networks and fuzzy logic models to long-shore sediment transport
Author(s)
Kabiri-Samani, AR
Aghaee-Tarazjani, J
Borghei, SM
Jeng, DS
Griffith University Author(s)
Year published
2011
Metadata
Show full item recordAbstract
Predictions of long-shore sediment transport rate (LSTR) are a vital task for coastal engineers in the determination of erosion or accretion along coasts. Many scientists have tried to find empirical method for the estimation of LSTR in the past decades. However, due to the influence of significant number of parameters and randomness of the data, the existing empirical methods provide quite different results and have limited applications. In this paper, an alternative approach, fuzzy logic and neural network, is proposed to estimate LSTR. Six dominant variables on LSTR are considered in the present models, including wave ...
View more >Predictions of long-shore sediment transport rate (LSTR) are a vital task for coastal engineers in the determination of erosion or accretion along coasts. Many scientists have tried to find empirical method for the estimation of LSTR in the past decades. However, due to the influence of significant number of parameters and randomness of the data, the existing empirical methods provide quite different results and have limited applications. In this paper, an alternative approach, fuzzy logic and neural network, is proposed to estimate LSTR. Six dominant variables on LSTR are considered in the present models, including wave breaking height (Hbs), wave period (T), wave breaking angle (?bs), beach slope (m), grain size (D) and sediment mass flow rate along shore (Qs). A comprehensive comparison between both neural networks and fuzzy logic models and the existing empirical formulae will be presented to demonstrate capacity of fuzzy logic and artificial neural network.
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View more >Predictions of long-shore sediment transport rate (LSTR) are a vital task for coastal engineers in the determination of erosion or accretion along coasts. Many scientists have tried to find empirical method for the estimation of LSTR in the past decades. However, due to the influence of significant number of parameters and randomness of the data, the existing empirical methods provide quite different results and have limited applications. In this paper, an alternative approach, fuzzy logic and neural network, is proposed to estimate LSTR. Six dominant variables on LSTR are considered in the present models, including wave breaking height (Hbs), wave period (T), wave breaking angle (?bs), beach slope (m), grain size (D) and sediment mass flow rate along shore (Qs). A comprehensive comparison between both neural networks and fuzzy logic models and the existing empirical formulae will be presented to demonstrate capacity of fuzzy logic and artificial neural network.
View less >
Journal Title
Applied Soft Computing
Volume
11
Issue
2
Subject
Civil Geotechnical Engineering
Applied Mathematics
Artificial Intelligence and Image Processing
Information Systems