Year 2019,
Volume: 2 Issue: 3, 125 - 129, 30.09.2019
Ganiyu Sodamade
,
Ezechiel Longe
Odum Odum
References
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Performance evaluation of two filter materials in intermittent sand filtration system
Year 2019,
Volume: 2 Issue: 3, 125 - 129, 30.09.2019
Ganiyu Sodamade
,
Ezechiel Longe
Odum Odum
Abstract
The environment is a
treasure that needs to be protected from point and diffuse sources of pollution.
Most wastewater treatment plants cannot attain 100% efficiencies and this call
for tertiary treatment process before discharging final treated wastewater into
the environment. The study focused on harnessing the locally available
materials, sand and granulated Palm Kernel Shell (gPKS) as filters for
treatment of wastewater from constructed wetland using intermittent filtration
system in the laboratory. The filter depth and hydraulic loading rate was 650
mm and 0.135 L min-1, respectively. Applied wastewater was effluent
from the Constructed Wetland (CW) of wastewater treatment plant University of
Lagos. The filtration system was dosed intermittently 6 hourly for 12 weeks.
Experimental results showed that pH of the effluent from gPKS filter medium was
slightly reduced to the influent due to acidic nature of the gPKS while
effluent from sand filter slightly increased. The five day biochemical oxygen
demand (BOD5) removal efficiency for the gPKS and sand filters were 59.2 and
69.08% respectively, while the corresponding average Dissolve Oxygen (DO) were
2.9 ± 0.6 mg L-1 and 3.4 ± 0.345. The percentage removal of E. coli in sand and gPKS filters are
69.34% and 87.49% respectively.
References
- Reference1 G. Sodamade, E. Longe and A. Sangodoyin A “Depth and performance evaluation of a laboratory scale sand filtration system for wastewater treatment,” Turkish Journal of Engineering & Environmental Sciences, Vol.38.2. pp 209-216, 2014.
- Reference2 M. Valentukeviciene, and G. Ignatavicius, “Improvement of phosphorus removal in the wastewater treatment,” Ekologija, Vol.60.4, pp 65–72, 2014.
- Reference3 K. Langenbach, P. Kuschk, H. Horn and M. Kästner “Modeling of slow sand filtration for disinfection of secondary clarifier effluent,” Water Resources, Vol. 44, pp. 159–166, 2010.
- Reference4 A. Renman, L.D. Hylander, and G. Renman, “Transformation and removal of nitrogen in reactive bed filter materials designed for on-site wastewater treatment,” Ecological Engineering Vol. 34 pp. 207–214, 2008.
- Reference5 T. K. Stevik, G. Ausland, P.D. Jenssen and R.L. Siegrist, “Removal of E. coli during intermittent filtration of wastewater effluent as affected by dosing rate and media type,” Water Resources, Vol. 33, pp. 2088-2098, 1999.
- Reference6 G. Ausland, T.K. Stevik, J.F. Hanssen, J.C. Kohler and P.D. Jenssen, “Intermittent filtration of wastewater-removal of fecal coliforms and fecal Streptococci,” Water Resources, Vol.36, pp. 3507-3516, 2002.
- Reference7 S.J. Rooklidge, L.H. and Ketchum Jr., “Corrosion control enhancement from a dolomite-amended slow sand filter” Water Resources Vol.36 pp. 2689-2694, 2002.
- Reference8 M.L. Weber–Shirk, “Enhancing slow sand filter performance with an acid-soluble seston extract,” Water Resources, Vol.36, pp. 4753-4756, 2002.
- Reference9 U.S. Environmental Protection Agency (EPA). Design Manual – Onsite Wastewater Treatment and Disposal Systems. Office of Water Program Operations, Office of Research and Development - Municipal Environmental Research Laboratory; 1980.
- Reference10 G. Prasad, R. Rajput, and A.K. Chopra, “Sand intermittent filtration technology for safer domestic sewage treatment,” Journal of Applied Science and Environmental Management, Vol.10.1, pp. 73 – 77, 2006.
- Reference11 American Public Health Association (APHA), Standard Methods for Examination of Water and Wastewater. 21st Edn., pp. 1368, 2005.
- Reference12 D. Kim, M. Gautam, W.A. Sack and D. Gera, “Estimation of fecal coliform removal from domestic sewage in two sand filter columns systems,” Toxicological and Environmental Chemistry, Vol.71, pp. 421-434, 1999.
- Reference13 R. Manorama, and C. Rukmini, “Nutritional evaluation of crude palm oil in rats,” American Journal of Clinical Nutrition, Vol.53 pp. 1031S-1033S, 1991.
- Reference14 M.O. Aremu, A. Olonisakin, D.A. Bako and P.C. Madu, “Compositional studies and physicochemical characteristics of cashew nut (Anarcadium occidentale) flour,” Pakistan Journal of Nutrition, Vol.5, pp. 328-333, 2006.
- Reference15 World Health Organization (WHO) standard: Guidelines for drinking waters, 2006.
- Reference16 E.O. Longe and A.O. Ogundipe, “Assessment of wastewater discharge impact from a sewage treatment plant on lagoon water, Lagos, Nigeria,” Journal of Applied Sciences, Engineering and Technology, Vol.2.3, pp 274 – 282, 2010.
- Reference17 N.R. Bulley and J.T.R. Husdon, “Effect of dissolved oxygen concentration on the aerobic stabilization of swine waste,” Canadian Agricultural Engineering, Vol.20.1, pp. 60-63
- Reference18 O.A. Awoyemi, A.C. Achudume and A.A. Okoya, “The Physicochemical Quality of Groundwater in Relation to Surface Water Pollution in Majidun Area of Ikorodu, Lagos State, Nigeria,” American Journal of Water Resources, Vol.22.5, pp. 126-133, 2014.