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Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications

Year 2015, Volume: 10 Issue: 4, 384 - 398, 30.10.2015

Abstract

Any interaction with river systems requires detailed consideration of channel evolution.  The  multiplicity  of physical processes  occurring  within catchment  and channel-floodplain complex  causes complicated processes in river channel. Therefore, it demands reliable and accurate methods in research, which are capable to  consider  exclusive and non-linear relationships  in river  system.  In the recent years, new approaches, relied on intelligence models of machine learning are proposed. Among them artificial neural networks (ANN) method is presently widely  used in the data-driven  modelling  for non-linear system  behaviour.  This paper 
presents a review of artificial neural network models and numerous applications of ANNs in river channel processes research.

References

  • Abbott MB, Bathurst JC, Cunge JA, O’Connell PE, Rasmussen J, (1986) An introduction to the European hydrological system – Systeme Hydrologique European, SHE. 1. History and philosophy of a physically-based, distributed modeling system. J. Hydrology, 87, 45-59. Agil M, Kita I, Yano A, Nishiyama S, (2007) Analysis and prediction of flow from local source in a river basin using a Neuro-fuzzy modelling tool. J. Environ. Manag., 85, 215-223. Alatas B, (2010) Chaotic bee colony algorithms for global numerical optimization. Expert Systems with Applic., 37, 5682-5687. Alp M, Cigizoglu HK, (2007) Suspended sediment load simulation by two artificial neural network methods using hydrometeorological data. Environ. Model. & Software, 22, 2-13. Anctil F, Tape DG, (2004) An exploration of artificial neural network rainfall-runoff forecasting combined with wavelet decomposition. J. Environ. Eng. & Science, 3, 121-128. Ariffin J, Kamal NA, Sa’adon MS, Taib MN, Abdul-Talib S, Abd-Ghani A, Zakaria NA, Yahaya AS, (2008) Sediment model for natural and man-made channels using general regression neural network. J. The Inst. of Eng., Malaysia, 69, 44-58. ASCE Task Comitte on Application of Artificial Neural Networks in Hydrology, (2000a) Artificial neural networks in hydrology. I: preliminary concepts. J. Hydrol. Eng. ASCE 5, 115-123. ASCE Task Comitte on Application of Artificial Neural Networks in Hydrology, (2000b) Artificial neural networks in hydrology. I: hydrologic applications. J. Hydrol. Eng. ASCE 5, 124-137. Astafyeva NM, (1996) Wavelet-analysis: Theory and application examples (in Russian). Success of physical sciences, 166, 1145-1170. Azmathullah HMd, Chang CK, Ghani AA, Ariffin J, Zakaria NA, Hasan ZA, (2009) An ANFIS-based approach for predicting the bed load for moderately sized rivers. J. Hydro-Environ. Res, 3, 35-44. Azmathullah HMd, Deo MC, Deolalikar PB, (2006) Estimation of scour bellow spillways using neural networks. J. Hydraulic Research. 44, 61-69. Banzhaf W, Nordin P, Keller P.E, Francone FD, (1998) Genetic programming. Morgan Kaufmann, San Francisco, CA, 512 pp. Bateni S.M, Borghei S.M, Jeng D-S, (2007) Neural network and neuro-fuzzy assessment for scour depth around bridge piers. Eng. Appl. Artif. Intell. 20, 401-414. Beck MB, (1987) Water quality modeling: a review of uncertainty. Water Resources Res, 23, 1393-1442. Bennett J.P, (1974) Concepts of mathematical modelling of sediment yield. Water Resources Res, 10, 485-492. Bhattacharya B, Deibel IK, Karstens SAM. Solomatine DP, (2007) Neural networks in sedimentation modeling for the approach channel of the port area of Rotterdam. Estuarine & Coastal Fine Sedim. Dynam., 8, 477-492. Bhattacharya B, Price RK, Solomatine DP, (2005) Data-driven modeling in the context of sediment transport. Physics & Chem. Earth, 30, 297-302. Bhattacharya B, Price R.K, Solomatine D.P, (2007) Machine learning approach to modeling sediment transport. J. Hydraulic Eng, ASCE, 133, 440-450. Caamano D, Goodwin P, Manic M, (2006) Derivation of a bedload sediment transport formula using artificial neural networks. 7th International Conference on Hydroinformatics HIC, Nice, France. Canas B, Fanni A, Sias G, Tronei S, Zedda MK, (2005) River flow forecasting using neural networks and wavelet analysis. EGU, European Geosciences Union, Vienna: Austria, p. 24-29. Chalov RS, (1979) Geographical investigation of river channel processes (in Russian). Press of Moscow State University, 232 p. Chen K, Yang L.P, Yu X, Chi H.S, (1997) A self-generating modular neural network architecture for supervised learning. Neurocomputing 16, 33-48. Cigizoglu H.K, Alp M, (2006) Generalized regression neural network in modeling river sediment yield. Advances in Eng. Software, 37, 63-68. Cigizoglu HK, Kisi O, (2006) Methods to improve the neural network performance in suspended sediment estimation. J. Hydrology, 317, 221-238. Cobaner M, Unal B, Kisi O, (2009) Suspended sediment concentration estimation by an adaptive neuro-fuzzy and neural networks approaches using hydro-meteorological data. J. Hydrology, 367, 52-61. Daubechies I, (1992) Ten lectures on Wavelets. SIAM: Society for Industrial and Applied Mathematics. ISBN-10: 0898712742. Elshorbagy A, Corzo G, Srinivasulu S, Solomatine DP, (2010) Experimental investigation of the predictive capabilities of data driven modeling techniques in hydrology – Part 1: Concepts and methodology. Hydrology Earth Syst. Sci., 14, 1931-1941. Elshorbagy A, Corzo G, Srinivasulu S, Solomatine DP, (2010) Experimental investigation of the predictive capabilities of data driven modeling techniques in hydrology – Part 2: Application. Hydrology Earth Syst. Sci., 14, 1943-1961. Flood I, Kartam N, (1994) Neural networks in civil engineering. I: Principles and understanding. J. Computing & Civil Eng., 8, 131-148. Goldberg D, (1989) Genetic Algorithms. Addison-Wesley, Reading, MA. Guven A, Gunal M, (2008) Prediction of scour downstream of grade-control structures using neural networks. J. Hydraul. Eng. 134, 1656-1660. Haykin S, (1999) Neural Networks: A comprehensive Foundation. Prentic-Hall, Upper Saddle River, New Jersey, 842 pp. Hirose Y, Yamashita K, Hijiya S, (1991) Back-propagation algorithm which varies the number of hidden units. Neural Networks 4, 61-66. Hornik K, Stinchcombe M, White H, (1989) Multilayer feedforward networks are universal approximators. Neural networks, 2, 359-366. Jain A, Sudheer KP, Srinivasulu S, (2004) Identification of physical process inherent in artificial neural network rainfall runoff models. Hydrological Processes, 18, 571-581. Jakeman AJ, Hornberger GM, (1993) How much complexity is warranted in a rainfall-runoff model? Water Resources Research, 29, 2637-2649. Jang J-SR, (1993) ANFIS: adaptive-network-based fuzzy inference systems. IEEE Transactions on Systems Man and Cybernetics 23(03), 665-685. Jang J.-SR, Sun CT, Mizutani E, (1997) Neurofuzzy and soft computing: a computational approach to learning and machine intelligence. Prentice-Hall, New Jersey. Kamp RG, Savenije HHG, (2006) Optimising training data for ANNs with genetic algorithms. Hydrology & Earth Syst. Sci, 10, 603-608. Karaboga D, (2005) An idea based on honey bee swarm for numerical optimization. Technical report TR06, Erciyes University, Eng. Faculty, Computer Eng. Depart. Karnin ED, (1990) A simple procedure for pruning back-propagation trained neural networks. IEEE Transactions on Neural Networks, 1, 239-242. Kaya A, (2010) Artificial neural network study of observed pattern of scour depth around bridge piers. Computers & Geotechnics, 37, 413-418. Khosronejad A, Montazer G.A, Ghodsian M, (2003) Estimation of scour hole properties around vertical pile using ANNs. Int. J. of Sediment Research, 18, 290-300. Kirkpatrick S, Gilatt CD, Vecchi MP, (1983) Optimization by simulated annealing. Sci. 220, 671-680. Kisi O, (2003) Modeling of suspended sediment yield in a river cross-section using fuzzy logic. Ph.D. Thesis, Istanbul Technical University, Institute of Science and Technology, Istanbul, Turkey. Kisi O, (2005) Suspended sediment estimation using neuro-fuzzy and neural network approaches. Hydrol. Sciences J. 50, 683-696. Kisi O, Haktanir T, Ardiclioglu M, Ozturk O, Yalcin E, Uludag S, (2009) Adaptive neuro-fuzzy computing technique for suspended sediment estimation. Adv.In Eng.Software, 40, 438-444. Kisi O, (2010) River suspended sediment concentration modeling using a neural differential evolution approach. J. Hydrology, 389, 227-235. Kisi O, Dailr AH, Cimen M, Shiri J, (2012) Suspended sediment modeling using genetic programming and soft computing techniques. J. Hydrology, 450-41, 48-58. Kisi O, Ozkan C, Akay B, (2012) Modeling discharge-sediment relationship using neural networks with artificial bee colony algorithm. J. Hydrology, 428-429, 94-103. Kisi O, Shiri J, (2012) River suspended sediment estimation by climatic variables implication: Comparative study among soft computing techniques. Comput. & Geosci. 43, 73-82. Koza JR, (1992) Genetic programming: On the programming of computers by means of natural sections. The MIT Press, Cambridge, MA. Lee TL, Jeng DS, Zhang GH, Hong JH, (2007) Neural network modeling for estimation of scour depth around bridge piers. J. Hydrodynamics. Ser. B, 19, 378-386. Lohani AK, Goel NK, Bhatia KK, (2007) Deriving stage-discharge-sediment concentration relationships using fuzzy logic. Hydrol. Sciences J., 52, 793-807. Maier HR, Dandy GC, (2000) Neural networks for the prediction and forecasting of water resources variables: a review of modeling issues and applications. Envir. Model. & Software, 15, 101-124. Makkaveev NI, (1955) River channel and erosion in its catchment (in Russian). Moscow. Academy of science of USSR Press, 347 p. Mamdani EH, Assilian S, (1975) An experiment in linguistic synthesis with a fuzzy logic controller. Int. J. Man Machine Studies 7, 1-13. Masters T, (1993) Practical neural network recipes in C++, Academic Press, San Diego, California. McCulloch WS, Pitts WS, (1943) A logical calculus of the ideas imminent in nervous activity. Bulletin & Math. Biophy., 5, 115-133. Merritt WS, Letcher RA, Jakeman AJ, (2003) A review of erosion and sediment transport models. Envir. Model. & Software, 18, 761-799. Minns AW, (2000) Subsymbolic methods for data mining in hydraulic engineering. J. Hydroinformatics, 2, 3-13. Najafzadeh M, Barani Gh.-A, (2011) Comparison of group method of data handling based genetic programming and back propagation systems to predict scour depth around bridge piers. Scientica Iranica, Transactions A: Civil Eng. 18, 1207-1213. Olden JD, Joy MK, Death RG, (2004) An accurate comparison of methods for quantifying variable importance in artificial neural networks using simulated data. Ecological Modeling, 178, 389-397. Partal T, Cigizoglu HK, (2008) Estimation and forecasting of daily suspended sediment data using wavelet-neural networks. J. Hydrology, 358, 317-331. Rahman HS, Alireza K, Reza G, (2010) Application of artificial neural network, kriging, and inverse distance weighting models for estimation of scour depth around bridge pier with bed sill. J. Software Eng. And Appl. 3, 944-964. Rajaee T, (2011) Wavelet and ANN combination model for prediction of daily suspended sediment load in rivers. Sci. Total Environ. 409, 2917-2928. Rajaee T, Mirbagheri SA, Zounemat-Kermani M, Nourani V, (2009) Daily suspended sediment concentration simulation using ANN and neuro-fuzzy models. Sci. Total Environ. 407, 4916-4927. Rao SS, (1996) Engineering optimization. 3rd Ed, Wiley, New York, 806-823. Rezapour OM, Shui LT, Ahmad DB, (2010) Review of artificial neural network model for suspended sediment estimation. Australian J. of Basic and Appl. Sci, 4(8), 3347-3353. Ripley BD, (1994) Neural networks and related methods of classification. J. Royal Statist.Sociaty, B 56, 409-456. Rojas R, (1996) Neural networks - a systematic introduction. The backpropagation algorithm. Springer Verlag, Berlin (Chapter 7). Rumelhart DE, Hinton GE, Williams RJ, (1986) Learning internal representations by error propagation. In: Rumelhart D.E, McClelland J.L. (Eds), Parallel Distributed Processing. MIT press, Cambridge. Sarley WS, (1994) Neural networks and statistical models. In: Proceedings of the Nineteenth Annual SAS Users Group Int. Conf, pp. 1538-1550. SAS Institute. Sasal M, Kashyap S, Rennie CD, Nistor I, (2009) Artificial neural networks for bedload estimation in alluvial rivers. J. Hydraulic Res., 47, 223-232. Setiono R, (1997) A penalty-function approach for pruning feedforward neural networks. Neural Computation 9, 185-204. Shahin MA, Jaksa MB, Maier HR, (2008) State of the art of artificial neural networks in geotechnical engineering. Electr. J. Geot. Eng. ISSN: 1089-3032. Shu C, Quadra TBMJ, (2008) Regional flood frequency analysis at ungauged sites using the adaptive neuro-fuzzy inference system. J. Hydrology, 349, 31-43. Sietsma J, Dow RJF, (1991) Creating artificial neural networks that generalize. Neural Networks 4, 67-79. Sorooshian S, (1991) “Parameter estimation, model identification and model validation: Conceptual-type models,” In: Recent advantages in the modeling of hydrologic systems. Eds.: Bowles D.S. and O’Connell P.E, Kluwer Academic Publ, pp. 443-467. Sudheer KP, (2005) Knowledge extraction from trained neural network river flow models. J. Hydrologic Engineering, 10, 264-269. Sudheer KP, Nayak PC, Ramasastri KS, (2003) Improving peak flow estimates in artificial neural network river flow models. Hydrological Processes, 18, 833-844. Takagi T, Sugeno M, (1985) Fuzzy identification of systems and its application to modeling and control. IEEE Transactions on System, Man and Cybernetics 15, 116-132. Tokar SA, Johnson PA, (1999) Rainfall-runoff modeling using artificial neural networks. J. Hydrologic Engineering, 4(3), 232-239. Wang D, Ding J, (2003) Wavelet network model and its application to the prediction of hydrology. Nature & Science, 1, 67-71. Wasserman PD, (1989) Neural computing: theory and practice. Van Nostrand Reinhold, New York. Wheater HS, Jakeman AJ, Beven KJ, (1993) Progress and directions in rainfall-runoff modelling. In: Jakeman A.J, Beck M.B, McAleer M.J. (Eds.), Modelling change in environmental systems. John Wiley and Sons, Chichester, pp. 101-132. Zaentsev IV, (1999) Neuron networks: Main models (in Russian). Voronezhskiy State University. Zurada J.M, (1992) Introduction to artificial neural systems. West Publishing Company, St. Paul. Zhu Y-M, Lu XX, Zhou Y, (2007) Suspended sediment flux modeling with artificial neural network: An example of the Longchuanjiang River in the Upper Yangtze Catchment, China. Geomorphology, 84, 111-125.
Year 2015, Volume: 10 Issue: 4, 384 - 398, 30.10.2015

Abstract

References

  • Abbott MB, Bathurst JC, Cunge JA, O’Connell PE, Rasmussen J, (1986) An introduction to the European hydrological system – Systeme Hydrologique European, SHE. 1. History and philosophy of a physically-based, distributed modeling system. J. Hydrology, 87, 45-59. Agil M, Kita I, Yano A, Nishiyama S, (2007) Analysis and prediction of flow from local source in a river basin using a Neuro-fuzzy modelling tool. J. Environ. Manag., 85, 215-223. Alatas B, (2010) Chaotic bee colony algorithms for global numerical optimization. Expert Systems with Applic., 37, 5682-5687. Alp M, Cigizoglu HK, (2007) Suspended sediment load simulation by two artificial neural network methods using hydrometeorological data. Environ. Model. & Software, 22, 2-13. Anctil F, Tape DG, (2004) An exploration of artificial neural network rainfall-runoff forecasting combined with wavelet decomposition. J. Environ. Eng. & Science, 3, 121-128. Ariffin J, Kamal NA, Sa’adon MS, Taib MN, Abdul-Talib S, Abd-Ghani A, Zakaria NA, Yahaya AS, (2008) Sediment model for natural and man-made channels using general regression neural network. J. The Inst. of Eng., Malaysia, 69, 44-58. ASCE Task Comitte on Application of Artificial Neural Networks in Hydrology, (2000a) Artificial neural networks in hydrology. I: preliminary concepts. J. Hydrol. Eng. ASCE 5, 115-123. ASCE Task Comitte on Application of Artificial Neural Networks in Hydrology, (2000b) Artificial neural networks in hydrology. I: hydrologic applications. J. Hydrol. Eng. ASCE 5, 124-137. Astafyeva NM, (1996) Wavelet-analysis: Theory and application examples (in Russian). Success of physical sciences, 166, 1145-1170. Azmathullah HMd, Chang CK, Ghani AA, Ariffin J, Zakaria NA, Hasan ZA, (2009) An ANFIS-based approach for predicting the bed load for moderately sized rivers. J. Hydro-Environ. Res, 3, 35-44. Azmathullah HMd, Deo MC, Deolalikar PB, (2006) Estimation of scour bellow spillways using neural networks. J. Hydraulic Research. 44, 61-69. Banzhaf W, Nordin P, Keller P.E, Francone FD, (1998) Genetic programming. Morgan Kaufmann, San Francisco, CA, 512 pp. Bateni S.M, Borghei S.M, Jeng D-S, (2007) Neural network and neuro-fuzzy assessment for scour depth around bridge piers. Eng. Appl. Artif. Intell. 20, 401-414. Beck MB, (1987) Water quality modeling: a review of uncertainty. Water Resources Res, 23, 1393-1442. Bennett J.P, (1974) Concepts of mathematical modelling of sediment yield. Water Resources Res, 10, 485-492. Bhattacharya B, Deibel IK, Karstens SAM. Solomatine DP, (2007) Neural networks in sedimentation modeling for the approach channel of the port area of Rotterdam. Estuarine & Coastal Fine Sedim. Dynam., 8, 477-492. Bhattacharya B, Price RK, Solomatine DP, (2005) Data-driven modeling in the context of sediment transport. Physics & Chem. Earth, 30, 297-302. Bhattacharya B, Price R.K, Solomatine D.P, (2007) Machine learning approach to modeling sediment transport. J. Hydraulic Eng, ASCE, 133, 440-450. Caamano D, Goodwin P, Manic M, (2006) Derivation of a bedload sediment transport formula using artificial neural networks. 7th International Conference on Hydroinformatics HIC, Nice, France. Canas B, Fanni A, Sias G, Tronei S, Zedda MK, (2005) River flow forecasting using neural networks and wavelet analysis. EGU, European Geosciences Union, Vienna: Austria, p. 24-29. Chalov RS, (1979) Geographical investigation of river channel processes (in Russian). Press of Moscow State University, 232 p. Chen K, Yang L.P, Yu X, Chi H.S, (1997) A self-generating modular neural network architecture for supervised learning. Neurocomputing 16, 33-48. Cigizoglu H.K, Alp M, (2006) Generalized regression neural network in modeling river sediment yield. Advances in Eng. Software, 37, 63-68. Cigizoglu HK, Kisi O, (2006) Methods to improve the neural network performance in suspended sediment estimation. J. Hydrology, 317, 221-238. Cobaner M, Unal B, Kisi O, (2009) Suspended sediment concentration estimation by an adaptive neuro-fuzzy and neural networks approaches using hydro-meteorological data. J. Hydrology, 367, 52-61. Daubechies I, (1992) Ten lectures on Wavelets. SIAM: Society for Industrial and Applied Mathematics. ISBN-10: 0898712742. Elshorbagy A, Corzo G, Srinivasulu S, Solomatine DP, (2010) Experimental investigation of the predictive capabilities of data driven modeling techniques in hydrology – Part 1: Concepts and methodology. Hydrology Earth Syst. Sci., 14, 1931-1941. Elshorbagy A, Corzo G, Srinivasulu S, Solomatine DP, (2010) Experimental investigation of the predictive capabilities of data driven modeling techniques in hydrology – Part 2: Application. Hydrology Earth Syst. Sci., 14, 1943-1961. Flood I, Kartam N, (1994) Neural networks in civil engineering. I: Principles and understanding. J. Computing & Civil Eng., 8, 131-148. Goldberg D, (1989) Genetic Algorithms. Addison-Wesley, Reading, MA. Guven A, Gunal M, (2008) Prediction of scour downstream of grade-control structures using neural networks. J. Hydraul. Eng. 134, 1656-1660. Haykin S, (1999) Neural Networks: A comprehensive Foundation. Prentic-Hall, Upper Saddle River, New Jersey, 842 pp. Hirose Y, Yamashita K, Hijiya S, (1991) Back-propagation algorithm which varies the number of hidden units. Neural Networks 4, 61-66. Hornik K, Stinchcombe M, White H, (1989) Multilayer feedforward networks are universal approximators. Neural networks, 2, 359-366. Jain A, Sudheer KP, Srinivasulu S, (2004) Identification of physical process inherent in artificial neural network rainfall runoff models. Hydrological Processes, 18, 571-581. Jakeman AJ, Hornberger GM, (1993) How much complexity is warranted in a rainfall-runoff model? Water Resources Research, 29, 2637-2649. Jang J-SR, (1993) ANFIS: adaptive-network-based fuzzy inference systems. IEEE Transactions on Systems Man and Cybernetics 23(03), 665-685. Jang J.-SR, Sun CT, Mizutani E, (1997) Neurofuzzy and soft computing: a computational approach to learning and machine intelligence. Prentice-Hall, New Jersey. Kamp RG, Savenije HHG, (2006) Optimising training data for ANNs with genetic algorithms. Hydrology & Earth Syst. Sci, 10, 603-608. Karaboga D, (2005) An idea based on honey bee swarm for numerical optimization. Technical report TR06, Erciyes University, Eng. Faculty, Computer Eng. Depart. Karnin ED, (1990) A simple procedure for pruning back-propagation trained neural networks. IEEE Transactions on Neural Networks, 1, 239-242. Kaya A, (2010) Artificial neural network study of observed pattern of scour depth around bridge piers. Computers & Geotechnics, 37, 413-418. Khosronejad A, Montazer G.A, Ghodsian M, (2003) Estimation of scour hole properties around vertical pile using ANNs. Int. J. of Sediment Research, 18, 290-300. Kirkpatrick S, Gilatt CD, Vecchi MP, (1983) Optimization by simulated annealing. Sci. 220, 671-680. Kisi O, (2003) Modeling of suspended sediment yield in a river cross-section using fuzzy logic. Ph.D. Thesis, Istanbul Technical University, Institute of Science and Technology, Istanbul, Turkey. Kisi O, (2005) Suspended sediment estimation using neuro-fuzzy and neural network approaches. Hydrol. Sciences J. 50, 683-696. Kisi O, Haktanir T, Ardiclioglu M, Ozturk O, Yalcin E, Uludag S, (2009) Adaptive neuro-fuzzy computing technique for suspended sediment estimation. Adv.In Eng.Software, 40, 438-444. Kisi O, (2010) River suspended sediment concentration modeling using a neural differential evolution approach. J. Hydrology, 389, 227-235. Kisi O, Dailr AH, Cimen M, Shiri J, (2012) Suspended sediment modeling using genetic programming and soft computing techniques. J. Hydrology, 450-41, 48-58. Kisi O, Ozkan C, Akay B, (2012) Modeling discharge-sediment relationship using neural networks with artificial bee colony algorithm. J. Hydrology, 428-429, 94-103. Kisi O, Shiri J, (2012) River suspended sediment estimation by climatic variables implication: Comparative study among soft computing techniques. Comput. & Geosci. 43, 73-82. Koza JR, (1992) Genetic programming: On the programming of computers by means of natural sections. The MIT Press, Cambridge, MA. Lee TL, Jeng DS, Zhang GH, Hong JH, (2007) Neural network modeling for estimation of scour depth around bridge piers. J. Hydrodynamics. Ser. B, 19, 378-386. Lohani AK, Goel NK, Bhatia KK, (2007) Deriving stage-discharge-sediment concentration relationships using fuzzy logic. Hydrol. Sciences J., 52, 793-807. Maier HR, Dandy GC, (2000) Neural networks for the prediction and forecasting of water resources variables: a review of modeling issues and applications. Envir. Model. & Software, 15, 101-124. Makkaveev NI, (1955) River channel and erosion in its catchment (in Russian). Moscow. Academy of science of USSR Press, 347 p. Mamdani EH, Assilian S, (1975) An experiment in linguistic synthesis with a fuzzy logic controller. Int. J. Man Machine Studies 7, 1-13. Masters T, (1993) Practical neural network recipes in C++, Academic Press, San Diego, California. McCulloch WS, Pitts WS, (1943) A logical calculus of the ideas imminent in nervous activity. Bulletin & Math. Biophy., 5, 115-133. Merritt WS, Letcher RA, Jakeman AJ, (2003) A review of erosion and sediment transport models. Envir. Model. & Software, 18, 761-799. Minns AW, (2000) Subsymbolic methods for data mining in hydraulic engineering. J. Hydroinformatics, 2, 3-13. Najafzadeh M, Barani Gh.-A, (2011) Comparison of group method of data handling based genetic programming and back propagation systems to predict scour depth around bridge piers. Scientica Iranica, Transactions A: Civil Eng. 18, 1207-1213. Olden JD, Joy MK, Death RG, (2004) An accurate comparison of methods for quantifying variable importance in artificial neural networks using simulated data. Ecological Modeling, 178, 389-397. Partal T, Cigizoglu HK, (2008) Estimation and forecasting of daily suspended sediment data using wavelet-neural networks. J. Hydrology, 358, 317-331. Rahman HS, Alireza K, Reza G, (2010) Application of artificial neural network, kriging, and inverse distance weighting models for estimation of scour depth around bridge pier with bed sill. J. Software Eng. And Appl. 3, 944-964. Rajaee T, (2011) Wavelet and ANN combination model for prediction of daily suspended sediment load in rivers. Sci. Total Environ. 409, 2917-2928. Rajaee T, Mirbagheri SA, Zounemat-Kermani M, Nourani V, (2009) Daily suspended sediment concentration simulation using ANN and neuro-fuzzy models. Sci. Total Environ. 407, 4916-4927. Rao SS, (1996) Engineering optimization. 3rd Ed, Wiley, New York, 806-823. Rezapour OM, Shui LT, Ahmad DB, (2010) Review of artificial neural network model for suspended sediment estimation. Australian J. of Basic and Appl. Sci, 4(8), 3347-3353. Ripley BD, (1994) Neural networks and related methods of classification. J. Royal Statist.Sociaty, B 56, 409-456. Rojas R, (1996) Neural networks - a systematic introduction. The backpropagation algorithm. Springer Verlag, Berlin (Chapter 7). Rumelhart DE, Hinton GE, Williams RJ, (1986) Learning internal representations by error propagation. In: Rumelhart D.E, McClelland J.L. (Eds), Parallel Distributed Processing. MIT press, Cambridge. Sarley WS, (1994) Neural networks and statistical models. In: Proceedings of the Nineteenth Annual SAS Users Group Int. Conf, pp. 1538-1550. SAS Institute. Sasal M, Kashyap S, Rennie CD, Nistor I, (2009) Artificial neural networks for bedload estimation in alluvial rivers. J. Hydraulic Res., 47, 223-232. Setiono R, (1997) A penalty-function approach for pruning feedforward neural networks. Neural Computation 9, 185-204. Shahin MA, Jaksa MB, Maier HR, (2008) State of the art of artificial neural networks in geotechnical engineering. Electr. J. Geot. Eng. ISSN: 1089-3032. Shu C, Quadra TBMJ, (2008) Regional flood frequency analysis at ungauged sites using the adaptive neuro-fuzzy inference system. J. Hydrology, 349, 31-43. Sietsma J, Dow RJF, (1991) Creating artificial neural networks that generalize. Neural Networks 4, 67-79. Sorooshian S, (1991) “Parameter estimation, model identification and model validation: Conceptual-type models,” In: Recent advantages in the modeling of hydrologic systems. Eds.: Bowles D.S. and O’Connell P.E, Kluwer Academic Publ, pp. 443-467. Sudheer KP, (2005) Knowledge extraction from trained neural network river flow models. J. Hydrologic Engineering, 10, 264-269. Sudheer KP, Nayak PC, Ramasastri KS, (2003) Improving peak flow estimates in artificial neural network river flow models. Hydrological Processes, 18, 833-844. Takagi T, Sugeno M, (1985) Fuzzy identification of systems and its application to modeling and control. IEEE Transactions on System, Man and Cybernetics 15, 116-132. Tokar SA, Johnson PA, (1999) Rainfall-runoff modeling using artificial neural networks. J. Hydrologic Engineering, 4(3), 232-239. Wang D, Ding J, (2003) Wavelet network model and its application to the prediction of hydrology. Nature & Science, 1, 67-71. Wasserman PD, (1989) Neural computing: theory and practice. Van Nostrand Reinhold, New York. Wheater HS, Jakeman AJ, Beven KJ, (1993) Progress and directions in rainfall-runoff modelling. In: Jakeman A.J, Beck M.B, McAleer M.J. (Eds.), Modelling change in environmental systems. John Wiley and Sons, Chichester, pp. 101-132. Zaentsev IV, (1999) Neuron networks: Main models (in Russian). Voronezhskiy State University. Zurada J.M, (1992) Introduction to artificial neural systems. West Publishing Company, St. Paul. Zhu Y-M, Lu XX, Zhou Y, (2007) Suspended sediment flux modeling with artificial neural network: An example of the Longchuanjiang River in the Upper Yangtze Catchment, China. Geomorphology, 84, 111-125.
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Primary Language English
Journal Section Articles
Authors

Z. Rozlach This is me

Publication Date October 30, 2015
Acceptance Date July 19, 2015
Published in Issue Year 2015 Volume: 10 Issue: 4

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APA Rozlach, Z. (2015). Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications. Journal of International Environmental Application and Science, 10(4), 384-398.
AMA Rozlach Z. Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications. J. Int. Environmental Application & Science. October 2015;10(4):384-398.
Chicago Rozlach, Z. “Data-Driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications”. Journal of International Environmental Application and Science 10, no. 4 (October 2015): 384-98.
EndNote Rozlach Z (October 1, 2015) Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications. Journal of International Environmental Application and Science 10 4 384–398.
IEEE Z. Rozlach, “Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications”, J. Int. Environmental Application & Science, vol. 10, no. 4, pp. 384–398, 2015.
ISNAD Rozlach, Z. “Data-Driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications”. Journal of International Environmental Application and Science 10/4 (October 2015), 384-398.
JAMA Rozlach Z. Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications. J. Int. Environmental Application & Science. 2015;10:384–398.
MLA Rozlach, Z. “Data-Driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications”. Journal of International Environmental Application and Science, vol. 10, no. 4, 2015, pp. 384-98.
Vancouver Rozlach Z. Data-driven Modelling in River Channel Evolution Rese Artificial Neural Networks Applications. J. Int. Environmental Application & Science. 2015;10(4):384-98.

“Journal of International Environmental Application and Science”