Exploratory study of Groundwater quality use for Drinking in the Duport Road and Soul Clinic Diamond Creek communities, Paynesville City, Republic of Liberia

Authors

  • McClain James  Ph.D. Candidate, School of Public Health, Department of Environmental Health, Indiana University-Bloomington, USA
  • Skrip Laura  Ph.D., National Public Health of Liberia
  • Paye  Instructor, Department of Pharmaceutical Chemistry, School of Public Health, University of Liberia
  • Plenseh Diana  

Keywords:

LaMotte kit, groundwater, Nitrate, Nitrite, Total coliform bacteria, Paynesville city, Greater Monrovia, Duport Road, Soul Clinic

Abstract

Background: Provision of quality and safe potable water remains a challenge and a significant public health issue in developing nations.

Objectives: In this study, we worked with the community leadership to estimate the safety and the quality level of groundwater use for drinking and domestic use.

Method:  The study selected 100-homes in the Paynesville City, Greater Monrovia meeting the inclusion criteria to complete the survey questionnaire. 57-water infrastructure (WI) were identified, sampled and analyzed for the physio-chemical and microbial parameters of the groundwater in the communities. The physio-chemical parameters investigated include total alkalinity, total dissolved solids, total hardness, pH, temperature, nitrate, and nitrite. Total coliform bacteria were analyzed for the microbial properties in the groundwater. Groundwater is the primary source of water for drinking and domestic use by approximately 90% of the homes in the Shara, Soul Clinic, and Cow Field communities of Montserrado County, Liberia.

Results: After adjusting for other variables and other socio-demographic confounder, participants/families consuming groundwater were more likely exposed to contaminated groundwater with a potential health outcome, (p < 0.001). Also observed, the more improved WI, the hand pump nitrate concentration was between 60-70 ppm, above the acceptable range from the WHO 2017 drinking water guidelines. The microbiological analysis showed that 93% of the water infrastructure (hand pumps and shallow wells) were contaminated with total coliform bacteria.

Conclusion: By investigating the quality of drinking water, the results of this study will inform community members and policymakers that action is needed for proper management and treatment of groundwater to reduce the risk of potential waterborne disease outbreak.

References

  1. UNEP, Report: Water Security and Ecosystem Services, The Critical Connection. 2009, UNEP: Nairobi.
  2. Elisante, E. and A.N.N. Muzuka, Sources and seasonal variation of coliform bacteria abundance in groundwater around the slopes of Mount Meru, Arusha, Tanzania. Environmental Monitoring and Assessment, 2016. 188(7).
  3. Ben Ammar, S., et al., Identifying recharge and salinization sources of groundwater in the Oussja Ghar el Melah plain (northeast Tunisia) using geochemical tools and environmental isotopes. Environmental Earth Sciences, 2016. 75(7).
  4. Aly, A.A., A.M. Al-Omran, and M.M. Alharby, The water quality index and hydrochemical characterization of groundwater resources in Hafar Albatin, Saudi Arabia. Arabian Journal of Geosciences, 2015. 8(6): p. 4177-4190.
  5. Affum, A.O., et al., Total coliforms, arsenic and cadmium exposure through drinking water in the Western Region of Ghana: application of multivariate statistical technique to groundwater quality. Environmental Monitoring and Assessment, 2015. 187(2).
  6. An, X., et al., The patterns of bacterial community and relationships between sulfate-reducing bacteria and hydrochemistry in sulfate-polluted groundwater of Baogang rare earth tailings. Environ Sci Pollut Res Int, 2016.
  7. Bamousa, A.O. and M. El Maghraby, Groundwater characterization and quality assessment, and sources of pollution in Madinah, Saudi Arabia. Arabian Journal of Geosciences, 2016. 9(8).
  8. Jimmy, D.H., et al., Water quality associated public health risk in Bo, Sierra Leone. Environ Monit Assess, 2013. 185(1): p. 241-51.
  9. Checkley, W., et al., "Effect of water and sanitation on childhood health in a poor Peruvian peri-urban community". LANCET Journal, 2004. 363: p. 112-118.
  10. World Health Organization, in WHO Web Site. 2015.
  11. Musa, H.A., et al., Water quality and public health in northern Sudan: a study of rural and peri-urban communities. J Appl Microbiol, 1999. 87(5): p. 676-82.
  12. TAGEO, Tageo, in Tageo Website. 2016.
  13. Kohl, S.K., J.D. Landmark, and D.F. Stickle, Demonstration of Absorbance Using Digital Color Image Analysis and Colored Solutions. Journal of Chemical Education, 2006. Vol. 83(04): p. 644 - 646.
  14. Levy, K., et al., Following the water: a controlled study of drinking water storage in northern coastal Ecuador. Environ Health Perspect, 2008. 116(11): p. 1533-40.
  15. Gruber, J.S., et al., A stepped wedge, cluster-randomized trial of a household UV-disinfection and safe storage drinking water intervention in rural Baja California Sur, Mexico. Am J Trop Med Hyg, 2013. 89(2): p. 238-45.
  16. Jensen, P.K., et al., Domestic transmission routes of pathogens: the problem of in-house contamination of drinking water during storage in developing countries. Trop Med Int Health, 2002. 7(7): p. 604-9.
  17. Ambesh, P. and S.P. Ambesh, Open Defecation in India: A Major Health Hazard and Hurdle in Infection Control. J Clin Diagn Res, 2016. 10(7): p. IL01-IL02.
  18. Boisson, S., et al., Promoting latrine construction and use in rural villages practicing open defecation: process evaluation in connection with a randomised controlled trial in Orissa, India. BMC Res Notes, 2014. 7: p. 486.
  19. Galan, D.I., S.S. Kim, and J.P. Graham, Exploring changes in open defecation prevalence in sub-Saharan Africa based on national level indices. BMC Public Health, 2013. 13: p. 527.
  20. Copeland, C.C., et al., Faecal contamination of drinking water in a Brazilian shanty town: importance of household storage and new human faecal marker testing. J Water Health, 2009. 7(2): p. 324-31.
  21. Hussain, I., et al., Distribution of Total Dissolved Solids in Drinking Water by Means of Bayesian Kriging and Gaussian Spatial Predictive Process. Water Quality Exposure and Health, 2014. 6(4): p. 177-185.
  22. Lerga, T.M. and C.K. O'Sullivan, Rapid determination of total hardness in water using fluorescent molecular aptamer beacon. Anal Chim Acta, 2008. 610(1): p. 105-11.
  23. Luo, S., et al., Effects of Total Hardness and Calcium:Magnesium Ratio of Water during Early Stages of Rare Minnows (Gobiocypris rarus). Comp Med, 2016. 66(3): p. 181-7.
  24. Grinsven, H.J.v., A. Rabl, and T.M. De Kok, Estimation of incidence and social cost of colon cancer due to nitrate in drinking water in the EU: a tentative cost-benefit assessment. BioMed Central Environmental Health Journal, 2010. Vol 9(58): p. 1-12.
  25. Runkle, K., S. LaFollette, and J. Alamu, Public Health Policy Options for Improving Well-Water Quality in West Point, Republic of Liberia. World Medical & Health Policy, 2013. Vol. 5(04): p. 304 - 323.
  26. Brender, J.D., et al., Prenatal nitrate intake from drinking water and selected birth defects in offspring of participants in the national birth defects prevention study. Environ Health Perspect, 2013. 121(9): p. 1083-9.
  27. Espejo-Herrera, N., et al., Nitrate in drinking water and bladder cancer risk in Spain. Environ Res, 2015. 137: p. 299-307.
  28. Devi, R., et al., Removal of fluoride, arsenic and coliform bacteria by modified homemade filter media from drinking water. Bioresource Technology, 2008. 99(7): p. 2269-2274.
  29. Saba, N.U., R. Umar, and A. Khan, Evaluation of chemical and microbial quality of groundwater of Moradabad City, India. Arabian Journal of Geosciences, 2015. 8(6): p. 3655-3672.
  30. Bastholm, S., et al., A simple bioluminescence procedure for early warning detection of coliform bacteria in drinking water. World Journal of Microbiology & Biotechnology, 2008. 24(10): p. 2323-2330.
  31. Filip, Z. and K. Demnerova, Microbial agents and activities to interfere with groundwater quality. Resilience of Cities to Terrorist and Other Threats, 2008: p. 55-67.
  32. Chigor, V.N., et al., Water quality assessment: surface water sources used for drinking and irrigation in Zaria, Nigeria are a public health hazard. Environ Monit Assess, 2012. 184(5): p. 3389-400.
  33. WHO, Guidelines for Drinking Water Quality, 4th Edition. 2017, World Health Origanization: GENEVA, Switzerland.
  34. Amiri, V., M. Rezaei, and N. Sohrabi, Groundwater quality assessment using entropy weighted water quality index (EWQI) in Lenjanat, Iran. Environmental Earth Sciences, 2014. 72(9): p. 3479-3490.
  35. Liu, X., et al., Effects of Assimilable Organic Carbon and Free Chloring on Bacteria Growth in Drinking Water. PLOS One, 2015: p. 01 - 11.
  36. Engstrom, E., et al., Prevalence of microbiological contaminants in groundwater sources and risk factor assessment in Juba, South Sudan. Science of the Total Environment, 2015. 515: p. 181-187.
  37. Helbling, D.E. and J.M. VanBriesen, Modeling Reidual Chlorine Response to a Microbial Contamination Event in Drinking Water Distribution ystems. Journal of Environmental Engineering ASCE, 2009: p. 918 - 927.
  38. Carvajal-Vélez, L., et al., Diarrhea management in children under five in sub-Saharan Africa: does the source of care matter? A Countdown analysis. BioMed Central Public Health, 2016. 16: p. 1-14.
  39. Ferguson, A.S., et al., Comparison of fecal indicators with pathogenic bacteria and rotavirus in groundwater. Sci Total Environ, 2012. 431: p. 314-22.

Downloads

Published

2018-04-30

Issue

Section

Research Articles

How to Cite

[1]
McClain James, Skrip Laura, Paye, Plenseh Diana, " Exploratory study of Groundwater quality use for Drinking in the Duport Road and Soul Clinic Diamond Creek communities, Paynesville City, Republic of Liberia, International Journal of Scientific Research in Science and Technology(IJSRST), Online ISSN : 2395-602X, Print ISSN : 2395-6011, Volume 4, Issue 5, pp.1224-1227, March-April-2018.