Published July 1, 2014 | Version 9998842
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Phytoadaptation in Desert Soil Prediction Using Fuzzy Logic Modeling

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In terms of ecology forecast effects of desertification, the purpose of this study is to develop a predictive model of growth and adaptation of species in arid environment and bioclimatic conditions. The impact of climate change and the desertification phenomena is the result of combined effects in magnitude and frequency of these phenomena. Like the data involved in the phytopathogenic process and bacteria growth in arid soil occur in an uncertain environment because of their complexity, it becomes necessary to have a suitable methodology for the analysis of these variables. The basic principles of fuzzy logic those are perfectly suited to this process. As input variables, we consider the physical parameters, soil type, bacteria nature, and plant species concerned. The result output variable is the adaptability of the species expressed by the growth rate or extinction. As a conclusion, we prevent the possible strategies for adaptation, with or without shifting areas of plantation and nature adequate vegetation.

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References

  • Yoav Bashan and Luz E. Microbial Populations of Arid Lands and their Potential for Restoration of Deserts de-Bashan P. Dion (ed.), Soil Biology and Agriculture in the Tropics, Soil Biology 21, DOI 10.1007/978-3-642-05076-3_6, # Springer-Verlag Berlin Heidelberg. 2010.
  • Burquez A, Quintana MA. 1994. Islands of diversity: ironwood ecology and the richness of perennials in a Sonoran Desert biological preserve. In: Nabhan GP, Carr JL (eds) Ironwood: An Ecological and Cultural Keystone on the Sonoran Desert. Conservation International, Washington, DC, pp 9–27
  • Garner W, Steinberger Y. A proposed mechanism for the formation of 'Fertile Islands' in the desert ecosystem. J Arid Environ 16:257–262. 1989.
  • Nabhan GP, Suzan H. Boundary effects on endangered cacti and their nurse plants in and near a Sonoran desert biosphere reserve. In: Nabhan GP, Carr JL (eds) Ironwood: An ecological and cultural keystone on the Sonoran Desert. Conservation International, Washington, DC, pp 55–6. 1994.
  • Tewksbury J, Petrovich CA. The influence of ironwood as a habitat-modifier species: a case study on the Sonoran desert coast of the Sea of Cortes. In: Nabhan GP, Carr JL (eds) Ironwood: An ecological and cultural keystone on the Sonoran Desert. Conservation International, Washington, DC, pp 29–5. 1994.
  • West P, Nabhan GP, Suzan H, Monti L. Ironwood diversity study. In: Nabhan GP, Behan M (eds) Desert ironwood primer. Arizona–Sonora Desert Museum, Tucson, AZ, pp 46–6. 2000.
  • Chile Julia W and all. Life at the hyperarid margin: novel bacterial diversity in arid soils of the Atacama Desert,. Springer Extremophiles Microbial Life Under Extreme Conditions Volume 16; Number 3. 2012.
  • Gonza´lez-Ruiz T, Rodrı´guez-Zaragoza S, Ferrera-Cerrato R. Fertility islands around Prosopis laevigata and Pachycereus hollianus in the drylands of Zapotitla´n Salinas, Me´xico. J Arid Environ. 72:1202–1212. 2008.
  • Dorn RI, Oberlander TM . Microbial origin of desert varnish. Science 213:1245–1247. 1981 [10] Bouharati S., Bounechada M., Djoudi A., Harzallah D., Alleg F., Benamrani H. Prevention of Obesity using Artificial Intelligence Techniques. International Journal of Science and Engineering Investigations. vol. 1, issue 9. 2012. [11] Demir F, Korkmaz KA. 2008. Prediction of lower and upper bounds of elastic modulus of high strength concrete. Constr Build Mater; 22 (7):1385–93. [12] Li-Xin W. 1997. Modelling and control of hierarchical systems with fuzzy system. Automatica J. IFAC.,. 33(-): 1041-1053.