Mathematical model of inverse transport of bacterial in fine sand column in deltaic environment

Authors

  • S.N. Eluozo Subaka Nigeria Limited Port Harcourt Rivers State of Nigeria. Nigeria

Keywords:

Mathematical model; Bacterial migration; Soil; Water; Environment

Abstract

Bacterial migration in soil and water environment under the influence of various soil characteristics has been expressed, the concepts is to monitor the transport process at various condition, bacterial  known to have a lot of variety of behaviour,  these condition were considered  when the system are developed, the major variables in the system are porosity of the soil, these  parameters determine the rate of bacterial deposition at every formation, degree of  porosity also has a lots of variation, therefore bacterial behaviour are influenced by the rate of soil porosity, the system developed an equation considering  this parameters as a major role in fast migration of bacterial under the influence of this variables, other variables were considered that played other role in the transport were expressed .in  the system, the developed mathematical equation that expresses this study of bacterial  were derived, applying slit method techniques  and  Bernoulli’s method of separation of variables, the developed equation are derived applying these concept  were the equation   express the parameters  at various  state with their  functions   at different phase of the transport process expressed denoted with mathematical tools, the  model express  base on the behaviour of the bacterial at different phase on  the transport  process to soil and water environment.

References

Akomeno, U., 1984. OI Electric logs for groundwater exploration in the Niger Delta Challenges in African Hydrology and Water Resources (Proceedings of the Harare Symposium, July 1984). IAHS Publ. no. 144.

Allen, J.R.L., 1965. Late Quaternary Niger Delta and adjacent areas: sedimentary environments and lithofacies. Bull. Am. Ass. Petrol. Geol. 49, 547-600.

Allen, J.R.L., 1970. Sediments of the modern Niger Delta: a summary and review. In: Deltaic Sedimentation (ed. by J.P.Morgan), 138- 151. Spec. Publ. Soc. Econ. Paleont. Miner, no. 15.

Nedeco (Netherlands Engineering Consultants), 1961. The Waters of the Niger Delta. Nedeco, The Hague

Ogbe, M.G., 2003. A Seminar on Wetlands, Water and Poverty Eradication in a water short world

Okolie, E.C., Osemeikhian, J.E.A., Oseji, J.O., Atakpo, E., 2005. eophysical Investigation of the source of River Ethiope” in Ukwuani Local Government area of Delta State. Nigeria Institute of Physics. Vol. 17.

Oseji, J.O., Atakpo, E., Okolie, E.C., 2005. “Geoelectric Investigation of the Aquifer Characteristics and Groundwater Potential in Kwale, Delta State, Nigeria Journal of Applied Sciences and Environmental Management Vol. 9 (1) Pp (157 – 1600) ISSN 1119 – 8362 www. Bioline. Org.br.ja.

Ebeniro, J.O., Avwiri, G.O., 1996. “Environmental Pollution due to Gas Flaring at Oyigbo Area of Rivers State”. Nigeria Journal of Physics Vol. 85. Pp (7 – 10).

Oseji, J.O., Asokhia, M.B., Okolie, E.C., 2006. “Determination of Groundwater Potential in Obiaruku and Environs Using Surface Geoelectric Sounding”. The Environmentalist, Springer Science + Business Media, DO1 10.10669-006-0159-x Vol. 26 Pp (301 – 308), Netherlands

Huisman, L., 1966. “Groundwater in Deltas” in scientific problems of the humid tropical zone deltas and their implications. Pro.dacca symp. Pp (157 – 168). UNESCO

Shanker, R.K., 1994. “Selected Chapters in Geology”. Shell Petroleum Development Company, Warri. Pp (10 – 148).

Oseji, J.O., 2011. surface geoelectric sounding for the determination of aquifer characteristics in aboh and environs delta state

Amangabara, G.T., Gordon J.D.N., Amangabara, T., Njoku, J.D. 2012. Assessing Groundwater Vulnerability to the Activities of Artisanal Refining in Bolo and Environs, Ogu/Bolo Local Government Area of Rivers State; Nigeria British Journal of Environment & Climate Change 2(1), 28-36, 2012

Boehm, P.D., Fiest, D.L., Elskus, A., 1981. Comparative weathering patterns of hydrocarbons from Amoco Cadiz oil spill observed at a variety of coastal environment. International Symposium on the fate and effects of oil spill. Brest, France, pp. 159-173.

Decker, J.C., 1981. Potential health hazards of toxic residues in sludge. In sludge-health risk of land application. Ann. Arbon. Sci. Publ. Inc., pp, 85-102.

Egila, J.N., Terhemen, A., 2004. A preliminary investigation into the quality of surface water in the environment of Benue Cement Company Plc. Gboko, Benue State. Nigeria. Int. J. Sci. Tech., 3(1), 12-17.

Ehirim, C.N., Ofor, W., 2011. Assessing Aquifer vulnerability solid wastes landfill Sites in a Coastal Environment, Port Harcourt, Nigeria. Trends in Applied Sciences Research, 6(2), 165 –173.

El-Deeb, M.K.Z., Emara, H.I., 2005. Polycyclic aromatic hydrocarbons and aromatic plasticizer materials in the seawater of Alexandria Coastal area. Egyptian J. of Aquat. Res., 31, 15-24.

Horsfall, M., Spiff, A.I., 1998. Principles of environmental Chemistry. Metrol Prints Ltd, Nigeria, pp. 107–118.

Martens, D.A., Frankenberger, Jr.T., 1995. Enhanced Degradation of Polycyclic Aromatic Hydrocarbons in soil treated with an Advanced Oxidative Process—Fenton’s Reagent. Journal of Soil Contamination, 4(2), 175-190.

Odukoya, O.O., Arowolo, T.A., Bamgbose, O., 2002. Effect of Solid Waste. Landfill on underground and surface water quality at Ring Road, Ibadan. Global J. Environ. Sci., 2(2), 235–242.

Ogbuagu, D.H., Okoli, C.G., Gilbert, C.L., Madu, S., 2011. Determination of the contamination of groundwater sources in Okrika Mainland with Polynuclear Aromatic Hydrocarbons (PAHs). British Journal of Environment & Climate Change, 1(3), 90-102.

Published

2013-05-29

How to Cite

Eluozo, S. . (2013). Mathematical model of inverse transport of bacterial in fine sand column in deltaic environment. Scientific Journal of Zoology, 1(1), 1-11. Retrieved from http://sjournals.com/index.php/sjz/article/view/404

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Section

Original Article