ijaers social
google plus

International Journal of Civil, Mechanical and Energy Science

ijcmes google ijcmes academia ijcmes rootindexing ijcmes reddit ijcmes IIFS ijcmes research bib ijaers digg ijcmes tumblr ijcmes plurk ijcmes I2OR ijcmes ASI ijcmes slideshare ijcmes open jgate ijcmes exactseek ijcmes Scrub the web ijcmes entireweb ijcmes speech counts ijcmes bibsonomy

Predicting the Effect from Fluid Flow Dynamics on Lacustrine Deposition in Siltyand Gravel Formation at Ahoada Niger Delta of Nigeria( Vol-3,Issue-1,January 2017 )


Eleki A. G, Eluozo S. N, Nwaoburu A .O


void ratio fluid flow, velocity Lacustrine and coarse formation.


This study were carried out to monitor the behaviour of fluid dynamics from the deposition of silty and gravel formation found to predominantly deposit in some location of Ahoada Niger delta of Nigeria, the study were to monitor fluid flow dynamics in a heterogeneous stratification in the study area. The behaviour of the fluid flow under these condition were monitored though the deposition of fluid dynamics at the study area, these parameters were observed to influences fluid flow deposition in the formation, the study observed the structural setting of the soil macropoles in such deltaic deposition, the heterogeneity of the macropoles in the geological setting developed heterogeneity flows dynamics, the structural setting of these strata developed such heterogeneous influences expressing flow dynamics in heterogeneous deposition in Ahoada, the model express various formation characteristic conditions in soil, simulation of the model generated different dynamics flow that determine the rate of fluid flow in heterogeneous silty and gravel formation, the study has express the rate of fluid dynamics by expressing the effect from Lacustrine deposition that should definitely determine the heterogeneity yield coefficient from silty and gravel formation, this implies that the deposition of silty and gravel formation in deltaic location should be a penetrating unconfined bed formation, the deltaic effect from fluid dynamics express the rate of influences in every part of the study location, the study has also observed low yield rate deposition in some part of the location . This is an expression from the simulation data that shows the rate of dynamics fluid flow in silty and gravel formation, this deposition should be penetrating unconfined bed in the study area, the study has shows that phreatic bed yields cannot not produce enough quantity for industrial purpose. Experts will use this model to determine the rate of fluid flow dynamics for penetrating unconfined bed.

Cite This Article:
Show All (MLA | APA | Chicago | Harvard | IEEE | Bibtex)
Paper Statistics:
  • Total View : 588
  • Downloads : 11
  • Page No: 013-023

[1] Dwivedi B.K. and G.C. Pandey. 2002. Physico-chemical factors and algal diversity of two pondsin Faizabad, India Poll. Res. 21(3): 361-370.
[2] Fair P. 1971. A Hypothesis concerning Silcia and fresh water plank tonic diatoms Limnol. Oceanogra. 16(1): 10-18. Forenshell G. 2001. Setting basin design. Western Regional Aquaculture Center, WRAC-106. USA. p. 6. Ghose F. and Basu P. 1968. Eutrophication trends in the water quality of the Rhode River. J. Mar. Biol. Assoc. 54: 825-855.
[3] Gray A.V. 1989. Case study on water quality modelling of Dianchi Lake, Yunnan province, southwest China. Water Sci. Technol. 40: 35-43.
[4] Gupta G. K. and Shukle R. 2006. Physiochemical and Bacteriological Quality in Various Sources of Drinking Water from Auriya District (UP) Industrial Area. Pollution Research. 23(4): 205-209.
[5] Chapman D. 1996. Water quality assessments: A guide to the use of biota, sediments and water in environmental monitoring 2nd Ed. UNESCO, World Health Organization, United Nations Environment Programme, London, U.K.
[6] Okoh A. I. 2007. Wastewater treatment plants as a source of microbial pathogens in the receiving watershed. Afr. J. Biotech. 6(25): 2932-2944.
[7] Okoye P. A. C., Enemuoh R. E. and Ogunjiofor J. C. 2002. Traces of heavy metals in Marine crabs. J. Chem. Soc. Nigeria. 27(1): 76-77.
[8] Pandey. 2003. Trends in eutrophication research and control. Hydrol. Proc. 10(2): 131-295. Lowel and Thompson F. 1992. Biodiversity of vibrios. Microbiol. Mol. Biol. Rev. 68: 403-431.
[9] Singh RP and Mathur P. 2005. (Dept Environ Std, MDS Univ, Ajmer 305 009). Investigation of variations in physico-chemical characteristics of a fresh water reservoir of Ajmer city, Rajasthan. Indian J. Environ Sci. 9(1): 57- 61.
[10] WHO. 2002. Water and health in Europe: A joint report from the European Environment Agency and the WHO Regional Office for Europe. World Health Organization, WHO Regional Publications, European Series No. 93.
[11] Patil Dilip B and Tijare Rajendra V. 2001. Investigation of pollution mystery of suspected carcinogen Cr (VI) and its control. Department of Chemistry, Govt. Sci Coll, Gadchiroli 442605. J. Indl Polln Contl, 17(1): 43-47.
[12] Sandoyin. 1991. Eutrophication trends in the water quality of the Rhode River. J. Mar. Biol. Assoc. 54: 825-855.
[13] Katsuro A., Yashiko K., Yoshinnori S., Takashi T. and Hayao S. 2004. Heavy - metal Distribution in River Waters and sediment a firefly village Shikou, Japan: Application of multivariate Analysis. Analytical science, 20: 79-84.
[14] Miller and siemmens. 2003. Anal. Chem. 31: 426-428. Chian Siong Low. 2001. Appropriate Microbial Indicator Tests for Drinking Water in Developing Countries and Assessment of Ceramic Water Filters. M.Sc thesis, Massachusetts Institute of Technology. pp. 1-12.
[15] WHO. 1992. Our planet our health- report of the WHO commission on health and Environment, Published by WHO, Geneva. pp. 130-131.
[16] Ray J. G. 1992. The influence of anthropogenial factors on the stability of steppe biogeocoenoes on the mid-dnieper watersheds in Ukraine. Ph. D thesis, Dniepropetrousk State University, Ukraine. p.155.
[17] Odada E. O., D. O. Olago, K. Kulindwa, M. Ntiba and S. Wandiga. 2004. Mitigation of environmental problems in Lake Victoria, East Africa: Casual chain and policy options analyses, Royal Swedish Academy of Sciences- Ambio. 33(1-2): 13-16.
[18] Hakanson L., A. Ostapenia, A. Parparov, K. D. Hambright and V. V. Boulion. 2003. Management criteria for lake ecosystems applied to case studies of changes in nutrient loading and climate change. Lakes and Reservoirs: Research and Management. 8: 141-155.
[19] Lewis W. M. Jr. 1987. Basis for the protection and management of tropical lakes. Lakes and Reservoir: Research and Management. 5: 35-48.
[20] Bertola C. 1998. Francois-Alphonse Forel (1841-1912): founder of Swiss Limnology, Archives Des Sciences. 51(1): 131-146.
[21] Bhatt L. R., P. Lacoul, H. D. Lekhak and P. K. Jha. 1999. Physico-chemical characteristics and phytoplanktons of Taudaha Lake. Kathmandu, Poll. Res. 18(4): 353-358.
[22] Jithesh k. 2008. Re investigation on hydrobiology and water quality parameters of Periyar Lake, Thekkady, Kerala. Ph. D dissertation, Environmental science research lab department of Botany, St. berchmans college Changanacherry, Kerala, 686101.
[23] Richard H and Ivanildo H. 1997. Water Pollution Control - A Guide to the Use of Water Quality Management Principles, Published on behalf of the United Nations Environment Programme, the Water Supply and Sanitation Collaborative Council and the World Health Organization by E. and F. Sponsor © 1997 WHO/UNEP ISBN 0 419 22910 8.