Abstract
Physico-chemical characteristics of different silica sands from Houéyogbé municipality were evaluated. Samples were characterized by different techniques, such as granulometry, ICP-OES, X-ray diffraction (XRD), FT-IR analysis, Optical microscopy, and Thermogravimetric/ Differential Thermal Analyses confirmed that these sands contain a high percentage of silicon dioxide (SiO2), with a value approximately equal to 98.4 wt.%. Low Alumina content (<1.18 wt.%) and minor oxides such as Fe2O3, Na2O, K2O and TiO2 were also present (<0.6 wt.%) in the samples. In all cases, the grain size distributions of the samples fall within the recommended size range for glass making. There are two major fractions: first between 106 μm–212 μm and then in the range of 212 μm–400 μm. TG/DTA observations showed that sand samples were relatively stable until 1200 ∘C. Furthermore, comparison of these results with standard criteria shows that the samples are fully capable for use as source of SiO2 for glass making (flat glass, colored glass), may be used for concrete making and are usable in foundry or in the ceramic industry.
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References
Ketner KB (1973) Silica sand. In: Brobst DA, Pratt WP (eds) United States Mineral Resources Professional Paper. [820]. U.S. Geological Survey, Washington, DC, pp 577–580
Bourne HL (1994) Glass raw materials. In: Carr DD (ed) Industrial minerals and rocks. Society for Mining, Metallurgy, and Exploration, Littleton, pp 543–650
Ariffin KS (2004) What is silica. Mineral Perindustrian EBS 425:1–7
British Standard BS2975 (1988) British Standard Methods for sampling and analysis of Glass making sands, p 22
David MI (2011) A study of silica sand quality and end uses in Surrey and Kent. www.Ist-glass.Istthings.com/articles/glasscolouring.html
Chate GR, Patel GCM, Deshpande AS, Parappagoudar MB (2017) Modeling and optimization of furan molding sand system using design of experiments and particle swarm optimization. J Process Mech Eng 0 (0):1–20
Chate GR, Patel GCM, Parappagoudar MB, Deshpande AS (2018) Application of statistical modelling and evolutionary optimization tools in resin-bonded molding sand system. In: Handbook of research on investigations in artificial life research and development, pp 123–152
Chate GR, Patel GM, Kulkarni RM, Vernekar P, Deshpande AS, Parappagoudar MB (2018) Study of the effect of nano-silica particles on resin-bonded moulding sand properties and quality of casting. Silicon 10(5):1921–1936
McLaws (1971) Uses and specification of silica sand. Research Council of Alberta Report 64 A, pp 71–74
ABE (Agence Béninoise pour l’Environnement) (1998) Profil institutionnel de l’environnement du Bénin. http://www.abe.bj/IMG/pdf/Profil_Institutionnel_de_l_Environnement_du_Benin.pdf
INSAE (Institut National de la Statistique et de l’Analyse Economique) (2013) Cahier des villages et quartiers de ville du département du Mono-RGPH-4. http://www.insae-bj.org/recensement-population.html?file=files/enquetes-recensements/rgph/Resultats_provisoires_RGPH4_2103.pdf
Raghavan P, Ramaswamy S, Chandrasekhar S, Sundararajan M (2017) Evaluation for the beneficiability of silica sands from Cherthala area of Alappuzha district, Kerala, India. Ind J Geo Mar Sci 46(08):1596–1606
Emofurieta WO, Kayode AA, Coker SA (1992) Mineralogy, geochemistry and economic evaluation of Kaolin Deposit near Ubulu – Uku, Awo- Omana and Buan in Southern Nigeria. J Min Geol 28:210–281
Edem CA, Malu SP, Ita BI (2014) Characterization and beneficiation of the glass making potentials of silica sand deposit from River Benue North Central Nigeria. J Nat Sci Res 4(19):49–58
Carignan J, Hild P, Mevelle G, Morel J, Yeghicheyan D (2001) Routine analyses of trace elements in geological samples using flow injection and low pressure on-line liquid chromatography coupled to ICP-MS: a study of geochemical reference materials BR, DR-N, UB-N, AN-G and GH. J Geostandards and Geoanal 25(2):187–198
Oliver H, Lotter AF, Lemcke G (2001) Loss on ignition as a method for estimating organic and carbonate content in sediments: Reproducibility and comparability of results. J Paleolimnol 25:101–110
Doremus RH (1973) Glass science. Wiley, New York, pp 78–90
Sell N (1982) Industrial pollution, control issues and techniques. Van Nostrand Reinhold, New York, pp 118–143
Paul A (1982) Chemistry of glass. Chapman and Hall, Oxford, pp 56–65
Sundeen SP (1978) Geological study of sand deposits in the State of Michigan. Phase II. Final Report 6–7
Hrdina K (1999) Production and properties of ULE glass glass with regards to EUV masks proceeding. In: International workshop on extreme ultra-violet lithography, corning, New York
Dararutana P, Chetanachan P, Dutchaneephet J, Sirikulrat N (2008) Lead-free high refractive index glasses produced from local raw materials. Adv Mater Res 39–40:257–260
Malu SP, Edem CA, Ita BI (2015) Chemical characterization of silica sand deposit from River Katsina-Ala, North central region of Nigeria. Glob J Pure Appl Chem Res 3:26–40
Tsai M (2004) The study of formation colloidal silica via sodium silicate. Mater Sci Eng 106:52–55
Carnin LPR, Folgueras MV, Luvizão RR, Correia SL, DaCunha CJ, Dungan RS (2012) Use of an integrated approach to characterize the physico-chemical properties of foundry green sands. Thermochim Acta 543:150–155
Štyriaková I, Mockovčiaková A, Štyriak I, Kraus I, Uhlík P, Madejová J, Orolínová Z (2012) Bioleaching of clays and iron oxide coatings from quartz sands. Appl Clay Sci 61:1–7
Boussaa SA, Kheloufi A, Zaourar NB, Kerkar F (2016) Valorization of algerian sand for photovoltaic application. Acta Phys Polon A 1:130–137
Fitzpatrick RW, Schwertmann U (1982) A Substituated Goetite—another weathering indicator of pedogenic and environments in South Africa. Geoderma 27:335–347
Weckler BLHD (1998) Lattice vibration spectra. Part XCV. Infrared spectroscopic studies on the ironoxide hydroxides goethite (α), akagankite (β),lepidocrocite (γ), and feroxyhite (σ). Eur J Solid State Inorganic Chem 35:531–544
Chakchouk A, Samet BM (2006) Study on the potential use of Tunisian clays as pozzolanic material. Appl Clays Sci 33:79–88
Sdiri A, Higashi T, Hatta T, Jamoussi F, Tase N (2010) Mineralogical and spectroscopic characterization and potential, environmental use of limestone from the Abiod Formation. Tunis Environ Earth Sci 61:1275–1287
Brett NH, MacKenzie KJD, Sharp JH (1970) The thermal decomposition of hydrous layer silicates and their related hydroxides. Q Rev Chem Soc 24:185
Berton Y, Leberre P (1983) Guide de prospection de matériaux de carrière. Manuel et Méthodes n∘5. Edition BRGM
Gaied MS (1990) Les sables siliceux, valorisation et divers domaines d’utilisation. Rapport ONM
Bonicelli A, Filippo GF, Crispino M (2015) Experimental study on the effects of fine sand addition on differentially compacted pervious concrete. Constr Build Mater 91:102–110
Acknowledgments
The “Centre de RecherchesPétrographiques et Géochimiques (CRPG)” is hereby acknowledged for their technical assistance during the ICP-OES studies. Dr. Abdel-Aziz OSSENI provided valuable assistance for the Map of Houéyogbé municipality showing sample locations.
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Osseni, S.A., Masseguin, M., Sagbo, E.V. et al. Physico-chemical Characterization of Siliceous Sands from Houéyogbé in Benin Republic (West Africa): Potentialities of Use in Glass Industry. Silicon 11, 2015–2023 (2019). https://doi.org/10.1007/s12633-018-0022-y
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DOI: https://doi.org/10.1007/s12633-018-0022-y