Journal of Environment Pollution and Human Health
ISSN (Print): 2334-3397 ISSN (Online): 2334-3494 Website: https://www.sciepub.com/journal/jephh Editor-in-chief: Dibyendu Banerjee
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Journal of Environment Pollution and Human Health. 2023, 11(1), 8-12
DOI: 10.12691/jephh-11-1-2
Open AccessArticle

Removal of Iron from Groundwater by Ash

Bouwèdèo Toi Bissang1, , Ogouvidé Akpaki1 and Gnon Baba1, 2

1Laboratory of Organic Chemistry and Environmental Science, Faculty of Science and Technology, University of Kara; B.P 404 Kara-Togo

2Laboratory of Waste Management, Treatment and Recovery, Faculty of Science, University of Lomé; B.P 1515 Lomé-Togo

Pub. Date: February 27, 2023

Cite this paper:
Bouwèdèo Toi Bissang, Ogouvidé Akpaki and Gnon Baba. Removal of Iron from Groundwater by Ash. Journal of Environment Pollution and Human Health. 2023; 11(1):8-12. doi: 10.12691/jephh-11-1-2

Abstract

Iron extraction generates waste that can impact the chemical quality of water. The aim of this work is to test the effectiveness of potash from different ashes obtained from several plants to remove ferrous ions from groundwater in the canton of Bangeli. Thus, three ashes were obtained respectively from corn cobs, nere wood and soybean stalks. The dry matter taken from porcelain crucibles was calcined at 550°C in an oven for 6 hours. The results showed that ash from corn cobs has a more ferrous ion removal effect. Indeed from a concentration of 2.5 g / L of this ash is obtained a reduction of 95% of the concentration of ferrous ions of treated water after 6 hours of reaction. There is also an increase in the levels of certain minerals such as potassium and sodium in water treated with ash from corn cobs.

Keywords:
Canton of Bangeli groundwater iron removal ash potash

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References:

[1]  J. Margat, “Exploitations et utilisations des eaux souterraines dans le monde”, Coédition UNESCO BRGM 52p, 2008.
 
[2]  Olivier Atteia (2005), Chimie et pollutions des eaux souterraines, Editions TEC et DOC, 398 p.
 
[3]  Andrès Y., F.-B. Catherine, C. GÉRENTE, et P. LE CLOIREC, “Elimination des ions métalliques et des métalloïdes dans l’eau”, 2007.
 
[4]  Ruiti M., “Elimination du fer par procédés d’oxydation et d’adsorption sur charbon de pin d’alep [Elimination of iron by processes of oxidation and by adsorption on coal of pine]”, Int. J. Innov. Appl. Stud., vol. 10, p. 694700, févr. 2015.
 
[5]  Hamiroune N., “Etude comparative de la capacité d’élimination des métaux lourds dissouts dans l’eau par les poudres de coquilles d’oeufs et de Kaolin.”, PhD Thesis, univercité de jijel, 2013.
 
[6]  Akpaki O., B. Ouadja, G. Baba (2019). “Impact of mining and agricultural activities on water chemical quality of the volta basin in togo over 2015 – 2017”, Modern and Traditional Methods of Water Resource Management in Africa; May 5-6 2019-Durban, South Africa; Cuvillier Verlag Göttingen, 85-95.
 
[7]  Das B.et al., “Removal of iron from groundwater by ash: A systematic study of a traditional method”, J. Hazard. Mater., vol. 141, no 3, p. 834841, mars 2007.
 
[8]  de Barros P. L., L. Iles, L. D. Frame, et D. Killick, “The Early Iron Metallurgy of Bassar, Togo: furnaces, metallurgical remains and iron objects”, Azania Archaeol. Res. Afr., vol. 55, no 1, p. 343, 2020.
 
[9]  Tchanadema M., M. AYAH, T. KODOM, P. NAMBO, L. M. BAWA, et G. DJANEYE-BOUNDJOU, “Risks of chemical pollution on the environment by solid mine waste at the semi-industrial iron mining site in Bandjeli, Togo”, 2021.
 
[10]  Jean Rodier 2009. Water Analysis Document, 9th edition. Dunod Paris, 1959
 
[11]  Jeffery G.H., J. Basset, J. Mendham, R.C. Denney, Vogel's Textbook of Quantitative Chemical Analysis, fifth ed., Longman Scientific & Technical, New York, 1989, p. 691.
 
[12]  Ecole des Mines de Saint-Etienne, 2008. Spectrometric methods of analysis and characterization: Atomic Absorption Spectrometry Axis “Process Engineering “, Spin Center, 43p.
 
[13]  Houben G. J., “Iron oxide incrustations in wells. Part 1: genesis, mineralogy and geochemistry”, Appl. Geochem., vol. 18, no 6, p. 927-939, 2003.
 
[14]  Komnitsas K., Bartzas, G., & Paspaliaris, I. (2004). Efficiency of limestone and red mud barriers: Laboratory column studies. Minerals engineering, 17(2), 183-194.
 
[15]  “Normes de l’OMS sur l’eau potable”. https://www.lenntech.fr/applications/potable/normes/normes-oms-eau-potable.htm (consulté le 2 septembre 2021).
 
[16]  Iqbal J., Y. Nazzal, F. Howari, C. Xavier, et A. Yousef, “Hydrochemical processes determining the groundwater quality for irrigation use in an arid environment: The case of Liwa Aquifer, Abu Dhabi, United Arab Emirates”, Groundw. Sustain. Dev., vol. 7, p. 212219, 2018.
 
[17]  CHARLES P., “Elimination catalytique du fer et du manganèse pour la production d’eau potable”, Etude Financ. Par Agence Eau Seine Normandie Rapp. Final SUEZ Environ. Octobre, 2008.
 
[18]  Lanciné G. D., K. Bamory, L. Raymond, S. Jean-Luc, B. Christelle, et B. Jean, “Coagulation-Flocculation treatment of a tropical surface water with alum for dissolved organic matter (DOM) removal: Influence of alum dose and pH adjustment”, J Int Env. Appl Sci, vol. 3, no 4, p. 247-257, 2008.
 
[19]  Bordoloi S., S. K. Nath, S. Gogoi, et R. K. Dutta, “Arsenic and iron removal from groundwater by oxidation-coagulation at optimized pH: Laboratory and field studies”, J. Hazard. Mater., vol. 260, p. 618626, 2013.