Providing a method based on cellular automata for modeling the forest fire development in Golestan national park forests

Document Type : Scientific article

Authors

1 Assistant Professor, School of Surveying and Geospatial Engineering, College of Engineering, University of Tehran, Tehran, I. R. Iran.

2 Ph.D. student of Geospatial Information Systems, School of Surveying and Geospatial Engineering, College of Engineering, University of Tehran, Tehran, I. R. Iran.

3 Assistant Professor, School of Civil Engineering, Shahrood University of Technology, Semnan, I. R. Iran.

Abstract

In the present study, firstly, the effective factors of Golestan national park forests fire have been identified. Then, by using these factors, forest fire development modeling is performed based on cellular automata. Multiple linear regression and genetic algorithm are used to determine the effective factors on Golestan national park forests fire. In order to investigate the effect of spatial resolution of the maps are used on the results of modeling, effective factors have been generated in different spatial resolution and these data are used as the input of the proposed algorithm. Also, the neighboring filters 3×3, 5×5, and 7×7 are used to investigate the effect of the neighboring filter in the forest fire development process. Cellular automata is used for modeling Golestan national park forests fire development, and the artificial bee colony is proposed to calibrate it. The results of this study show that using the proposed algorithm with 3×3 neighboring filter is more accurate than the other neighboring filters. In the best case, the Kappa index, the overall accuracy, and the relative operating characteristic are 0.924, 0.960, and 0.494, respectively that these results are for spatial resolution of 30 meters on November 17, 2010.

Keywords


- Akay, B. & D. Karaboga, 2017. Artificial bee colony algorithm variants on constrained optimization, An International Journal of Optimization and Control: Theories & Applications, 7(1): 98-111.
- Alexander, M. & M. Cruz, 2013. Are the applications of wildland fre behaviour models getting ahead of their evaluation again?, Environmental Modelling and Software, 41: 65-71.
- Alexandridis, A., D. Vakalis, C.I. Siettos, & G.V. Bafas, 2008. A cellular automata model for forest fire spread prediction: The case of the wildfire that swept through Spetses Island in 1990, Applied Mathematics and Computation, 204(1): 191-201.
- Amiri, T., A. Banj Shafiei, M. Erfanian, O. Hosseinzadeh, & H. Beygiheidarlou, 2017. Determining of effective criteria in locating firefighting station in forest, Journal of forest research and development, 2(4): 379-393. (In Persian)
- Bodrožic, L., D. Stipanicev, & M. Šeric, 2004. Forest fires spread modeling using cellular automata approach, M.S. Thesis, University of Split, Split, Croatia, 80 p.
- Banj Shafiei, A., H. Beygi Heidarlu, & M. Erfanian, 2015. Evaluating the Fuzzy Weighted Linear Combination Method in Forest Fire Risk Mapping (Case study: Sardasht Forests, West Azerbaijan Province, IRAN), Journal of wood and forest science and technology, 22(3): 29-52. (In Persian)
- Banj Shafiei, A., H. Beygi Heidarlu, & M. Erfanian, 2015. Forest fire risk mapping using analytical hierarchy process technique and frequency ratio method (Case study: Sardasht Forests, NW Iran), Iranian Journal of Forest and Poplar Research, 22(4): 559-573. (In Persian)
- Brun, C., T. Margalef, & A. Cort' es, 2013. Coupling Diagnostic and Prognostic Models to a Dynamic Data Driven Forest Fire Spread Prediction System, ProcediaComputer Science, 18: 1851-1860.
- Dale, P. 2014. Mathematical Techniques in GIS, Second Edition, CRC Press.
- Encinas, A.H., L.H. Encinas, H. White, M. del Rey & R. Sánchez, 2007. Simulation of forest fire fronts using cellular automata, Advances in Engineering Software, 38(6): 372-378.
- Feng, Y., Y. Liu, X. Tong, M. Liu & S. Deng, 2011. Modeling dynamic urban growth using cellular automata and particle swarm optimization rules, Landscape and Urban Planning, 102(3): 188-196.
- Fengxia, Y. & L. Gang, 2012. The Simulation and Improvement of Particle Swarm Optimization Based on Cellular Automata, Procedia Engineering, 29: 1113-1118.
- Ghaemi Rad, T. & M. Karimi, 2015. Evaluation and comparison the results of optimization of forest fire spreading model based on cellular automata using PSO and ABC algorithms, journal of Geographical Data (SEPEHR), 24(93): 65-76. (In Persian)
- Ghaemi Rad, T. & M. Karimi, 2015. Evaluation performances of different forest fire spread models using cellular automata (case study: The forests of Lakan district in Rasht), Iranian journal of Forests and Poplar Research, 23(1): 64-78. (In Persian)
- Ghisu, T., B. Arca, G. Pellizzaro & P. Duce, 2015. An optimal Cellular Automata algorithm for simulating wildfi re spread, Environmental Modelling & Software, 71: 1–14.
- Hasanlou, M. & F. Samadzadegan, 2010. ICA/PCA base genetically band selection for classification of Hyperspectral images, Asian Conference on Remote Sensing, presented at the 31st.
- Hanes, C., P. Jain, M. Flannigan, V. Fortin & G. Roy, 2017. Valuation of the Canadian Precipitation Analysis (CaPA) to improve forest fire danger rating, International Journal of Wildland Fire, 26(6): 509-522.
- Jellouli, O., A. Bernoussi, M. Mâatouk & M. Amharref, 2016. Forest fire modelling using cellular automata: application to the watershed Oued Laou (Morocco). Mathematical And Computer Modelling Of Dynamical Systems, 22(5): 493–507.
- Jahdi, R., A.A. Darvishsefat & V. Etemad, 2014. Predicting Forest Fire Spread Using Fire Behavior Model (Case study: Malekroud Forest-Siahkal), Iranian journal of Forest, 5(4): 419-430. (In Persian)
- Karaboga, D., B. Gorkemli, C. Ozturk & N. Karaboga, 2014. A comprehensive survey: artificial bee colony (ABC) algorithm and applications, Artificial Intelligence Review, 42(1): 21–57.
- Karafyllidis, I. & A. Thanailakis, 1997. A model for prediction forest fire spreading using cellular autómata, Ecological Modelling, 99(1): 87-97.
- Lopes, A.M.G., L.M. Ribeiro, D.X. Viegas & J.R. Raposo, 2017. Effect of two-way coupling on the calculation of forest fire spread: model development, International Journal of Wildland Fire, 26(9): 829-843.
- Ntaimo, L., M. Khargharia & B. Zeigler, 2004. Forest Fire Spread and Suppression in DEVS. Arizona Center for Integrative Modeling and Simulation, University of Arizona, 40 p.
- Perryman, H., Ch. Dugaw, M. Varner & D. Johnson, 2012. A cellular automata model to link surface fires to firebrand lift-off and dispersal, International Journal of Wildland Fire, 22(4): 428-439.
- Ruffault, J. & F. Mouillot, 2017. Contribution of human and biophysical factors to the spatial distribution of forest fire ignitions and large wildfires in a French Mediterranean region, International Journal of Wildland Fire, 26(6): 498-508.
- Shan, J., Sh. Alkheder & J. Wang, 2008. Genetic Algorithms for the Calibration of Cellular Automata Urban Growth Modeling, Photogrammetric Engineering & Remote Sensing, 74(10): 1267-1277.
- Shokri, R.A., R. Basiri & H. Taleshi, 2017. Effect of fire on structure and regeneration of oak coppice trees in Lorestan province (Case study: Tangeh Ghale area in Kuhdasht), Journal of Forest Research and Development, 3(2): 163-174. (In Persian)
- Sivanandam, S.N. & S.N. Deepa, 2008. Introduction to Genetic Algorithms, Springer Verlag Berlin Heidelberg.
- Thomas, C.M., J.J. Sharples & J.P. Evans, 2017. Modelling the dynamic behaviour of junction fires with a coupled atmosphere– fire model, International Journal of Wildland Fire, 26(4): 331-344.
- Uyanık, G. & N. Güler, 2013. A Study on Multiple Linear Regression Analysis, Procedia – Socialand Behavioral Sciences, 106: 234-240.
- Wang, S.L., H.I. Lee & S.P. Li, 2014. Fractal dimensions of wildfire spreading, Nonlinear Processes in Geophysics, 21(4): 815-823.
- Whitsed, R. & L. Smallbone, 2017. A hybrid genetic algorithm with local optimiser improves calibration of a vegetation change cellular automata model, International Journal of Geographical Information Science, 31(4): 717-737.
- Woo, H., W. Chung, J. Graham & B. Lee, 2017. Forest fire risk assessment using point process modelling of fire occurrence and Monte Carlo fire simulation, International Journal of Wildland Fire, 26(9): 789-805.