LES CARACTÉRISATIONS DES FELDSPATHS DU MASSIF D’OUED EL-ANNAB ET LA POSSIBILITÉ DE LES EXPLOITER POUR L’INDUSTRIE
Article Sidebar
Main Article Content
Abstract
Les microgranites du massif d’Oued El-Annab font partie des roches magmatiques calciques riches en K d’âge Miocène, ils sont exposés sur une superficie d’environ 150 km2 dans le cap de fer et Edough sur le long de la côte méditerranéenne nord-est de l’Algérie. L’étude pétrographique montre que le massif d’Oued El-Annab se compose principalement de groupe des feldspaths, la biotite est en quartz. Les feldspaths surtout les plagioclases sont les plus abondants et représente presque 50% du massif suivi par la biotite puis le quartz. La spectroscopie infrarouge confirme les résultats pétrographiques et montre que les trois minéraux apparaissent entre le pic 500 et 1500 cm-1 avec des minéraux argileux qui apparaissent après le pic 1000 cm-1 représenté par des pics faibles. Ce massif contient une quantité importante de feldspath peu utiliser en industrie de céramique, de verre et glaçures .
Downloads
Metrics
Article Details
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.
References
Ahmed-Said. Y, Leake. BE et Rogers G – 1993: “The petrology, geochemistry and petrogenesis of the Edough igneous rocks, Annaba, NE Algeria”. J Afr Earth Sci 17:111–12.
Ansari. MNM, Ismail. H et Zein SHS – 2009: “Effect of multi-walled carbon nanotubes on mechanical properties of feldspar filled polypropylene composites”. J. Reinf. Plast. Comp. 28, 2473–2485.
Barry Carter. C et Grant Norton. M – 2008: “Ceramic Materials”, Springer, New York, NY, 2008
Bernasconi. A, Marinoni. N, Pavese. A, Francescon. F et Young. K – 2014: “Feldspar and firing cycle e_ects on the evolution of sanitary-ware vitreous body”. Ceram. Int. 40, 6389–6398.
Bosch. D, Hammor. D, Mechati. M, Fernandez. L, Bruguier. O, Caby. R et Verdoux. P – 2014: “Geochemical study (major, trace elements and Pb–Sr–Nd isotopes) of mantle material obducted onto the North African margin (Edough Massif, North Eastern Algeria): Tethys fragments or lost remnants of the Liguro–Provençal basin?” Tectonophysics 626:53–68.
Bossière. G, Collomb. P et Mahdjoub. Y – 1976 : “Sur un gisement de Péridotites découvert dans le massif cristallophyllien de l’Edough (Annaba, Algérie) ”. CR Acad Sci Paris 283 :885–888.
Bruguier. O, Hammor. D, Bosch. D et Caby. R – 2009: “Miocene incorporation of peridotite into the Hercynian basement of the Maghrebides (Edough massif, NE Algeria): implications for the geodynamic evolution of the Western Mediterranean”. Chem Geol 261:172–184.
Caby. R, Bruguier. O, Fernandez. L, Hammor. D, Bosch. D, Mechati. M, Laouar. R, Ouabadi. A, Abdallah. N et Douchet. C – 2014: “Metamorphic diamonds in a garnet megacryst from the EdoughMassif (northeastern Algeria). Recognition and geodynamic consequences. Tectonophysics 637:341–353.
Caby. R, Hammor. D et Delor. C – 2001: “Metamorphic evolution, partial melting and Miocene exhumation of lower crust in the Edough metamorphic core complex, west Mediterranean orogen, eastern Algeria”. Tectonophysics 342:239–273.
Changwen. D, Linker. R et Shaviv A – 2007: “Characterization of soils using photoacoustic mid-infrared spectroscopy”. In: applied spectroscopy. pp 1063–1067.
Demange. M, Lia-Aragnouet. F, Pouliquen. M, Perrot. X et Sauvage. H – 1999: “Les syenites de Castillet (Pyrenees-Orientales), une roche exceptionnelle dans les Pyrenees”. C.R. Academie des Sciences, vol. 329,5 - Paris.
Dill. H G – 2015: “Pegmatites and aplites: Their genetic and applied ore geology. Ore Geol. Rev. 69, 417–561.
Dondi. M – 2018: “Feldspathic fluxes for ceramics: Sources, production trends and technological value. Resources”, Conservation and Recycling, 133, 191-205.
Eulry. M –1987: “Les gisements de feldspaths et de syénite néphélinique en Languedoc- Roussillon”. Rap. BRGM n° 87 S G N 666 L R O.
Farmer. VC – 2000: “Transverse and longitudinal crystal modes associated with OH stretching vibrations in single crystals of kaolinite and dickite. In: spectrochimica acta part A: molecular and biomolecular spectroscopy”. pp 927–930.
Fernandez. L, Bosch. D, Bruguier. O, Hammor. D, Caby. R, Monié. P, Arnaud. N, Toubal. A, Galland. B et Douchet. C – 2016: “Permo- Carboniferous and early Miocene geological evolution of the internal zones of the Maghrebides-new insights on the Western Mediterranean evolution”. J Geodyn 96:146–173.
Fernandez. L. (2015), Etude géochimique et géochronologique d'un massif basique et ultrabasique des zones internes de la chaîne des Maghrébides (Edough, NE Algérie) -Contraintes sur l'évolution de la Méditerranée occidentale au Cénozoïque. Phd thesis, Univ. Montpellier, 356.
Fougnot. J. (1990), Le magmatisme miocène du littoral Nord Constantinois, Phd thesis, INPL Nancy, 358.
Ghalayini. ZT – 2020: “Feldspar and nepheline syenite. In Mineral Commodity Summaries”. U.S. Geological Survey: Reston, VA, USA, 2020; pp. 58–59.
Gillet. G et Houotr. M –1978: “Valorisation de syenites néphéliniques par procédés magnétiques”. Industrie Minérale - minéralurgie (octobre 1978).
Gougazeh. M, Bamousa. A et Hasan, A – 2018: “Evaluation of granitic rocks as feldspar source: Al Madinah, Western Part of Saudi Arabia”. Journal of Taibah University for Science, 12(1), 21-36.
Hadj Zobir. S et Oberhänsli. R – 2013: “The Sidi Mohamed peridotites (Edough massif, NE Algeria): evidence for an upper mantle origin”. Journal of Earth System Science 122:1455–1465.
Haldar. SK et Tiˇsljar. J – 2014: “Basic mineralogy”. Introd. to Mineral. Petrol., pp. 39–79.
Hamadi. A et Nabih. K – 2012: “Alkali activation of oil shale ash-based ceramics”. J Chem 9(3):1373–1388
Hammor. D et Lancelot. J – 1998 : “Métamorphisme miocène de granites panafricains dans le massif de l'Edough (Nord-Est de l'Algérie) ”. CR Acad. Sci. Paris 327:391–396
Hilly. J. (1957), Etude géologique du massif de l'Edough et du Cap de Fer (Est-Constantinois). Phd thesis, Univ. Nancy, 408.
Hlavay. J, Jonas. K Elek. S et Inczedy. J – 1978: “Characterization of the particle size and the crystallinity of certain minerals by IR spectrophotometry and other instrumental methods-II. Investigations on quartz and feldspar”. Clays Clay Miner 26(2):139–143.
Iiishi. K, Tomisaka. T et Umagaki Y. – 1971: “lsomorphous substitution and infrared and farinfrared spectra of the feldspar group”. Neues Jahrbuch flit Mineralogie, Abhandlungen, v.115, p. 98-119.
Ismail. H, Osman H et Ariffin A – 2005: “A comparative study on curing characteristics, mechanical properties, swelling behavior, thermal stability, and morphology of feldspar and silica inSMRL vulcanizates”. Polym. Plast. Technol. 43, 1323–1344.
Ismail. H, Osman H et Ariffin A – 2007: “Curing characteristics, fatigue and hysteresis behaviour of feldspar filled natural rubber vulcanizates”. Polym. Plast. Technol. 2007, 46, 579–584.
Jaeob. M – 1905 : “carte géologique 1/50000 de BONE BUGEAUD”. Services géologiques de l’Algérie.
Ji. J, Ge. Y, Balsam. W, Damuth. JE et Chen. J – 2009: “Rapid identification of dolomite using a Fourier transform infrared spectrophotometer (FTIR): a fast method for identifying Heinrich events in IODP Site U1308”. Mar Geol 258(1–4):60–68
Kara. A, Özer. F, Ka˘gan, K et Özer, P – 2006: “Development of a multipurpose tile body: Phase and microstructural development”. J. Eur. Ceram. Soc. 2006, 26, 3769–3782.
Kotoky. P, Bezbaruah. D, Baruah. J, Borah. GC et Sarma JN -2006: Characterization of clay minerals in the Brahmaputra river sediments, Assam, India. Current Science, 1247-1250.
Kumar. RS et Rajkumar. P – 2014: “Characterization of minerals in air dust particles in the state of Tamilnadu, India through FTIR, XRD and SEM analyses”. Infrared Phys Technol 67:30–41
Laouar. R, Boyce. AJ, Ahmed-Said. Y, Ouabadi. A, Fallick. AE et Toubal. A – 2002: “Stable isotope study of the igneous, metamorphic and mineralized rocks of the Edough complex, Annaba, Northeast Algeria”. J Afr Earth Sci 35:271–283
Laouar. R, Boyce. AJ, Arafa. M, Ouabadi. A et Fallick. AE – 2005: “Petrological, geochemical, and stable isotope constraints on the genesis of the Miocene igneous rocks of Chetaibi and Cap de Fer (NE Algeria)”. J Afr Earth Sci 41:445–465.
Lee. GF et Stitt. PH – 1982: “The Oberon alaskite deposit a source of beneficated feldspar”. J. Aust. Ceram. Soc. 18, 49–52.
Lee. WE et Iqbal. Y – 2001: “Influence of mixing on mullite formation in porcelain”. J. Eur. Ceram. Soc. 21, 2583–2586.
Madejova. J et Komadel. P – 2001: “Baseline studies of the clay minerals society source clays: infrared methods”. In: clays and clay minerals. pp 410–432.
Mansour. SH, Asaad. JN et Ebd-El-Messieh SL – 2006: “Synthesis and characterization of brominated polyester Composites”. J. Appl. Polym. Sci. 102, 1356–1365.
Marignac. C et Zimmermann. JL – “1983. Ages K-Ar de l'événement hydrothermal et des intrusions associées dans le district minéralise miocène d'Ain-Barbar (Est Constantinois, Algérie) ”. Mineral. Deposita 18, 457e467.
Martin-Marquez. J, Rincon, JM et Romero. M – 2010: “Mullite development on firing in porcelain stoneware bodies”. J. Eur. Ceram. Soc. 30, 1599–1607.
Matteson. A et Herron. MM – 1993: “End-member feldspar concentrations determined by FTIR spectral analysis”. Journal of Sedimentary Research, 63(6), 1144-1148.
McKeown. DA, Bell. MI et Etz. ES – 1999: “Vibrational analysis of the dioctahedral mica: 2M1 muscovite”. American Mineralogist, 84(7-8), 1041-1048.
Mechati. M, Caby. R, Hammor. D, Bosch. D, Bruguier. O et Fernandez. L – 2018: “Reworking of intra-oceanic rocks in a deep-sea basin: example from the Bou Maiza complex (Edough massif, Eastern Algeria)”. Intern Geol Review 60:464–478.
Monié. P, Montigny. R et Maluski. H – 1992 : “Age burdigalien de la tectonique ductile extensive dans le massif de l’Edough (Kabylies, Algérie) ”. Données radiométriques 39Ar–40Ar. Bull. Soc. géol. Fr. 5:571–584.
Nayak. PS et Singh. BK – 2007: “Instrumental characterization of clay by XRF, XRD and FTIR”. Bull Mater Sci 30:235–238
Neupane BB, Sharma. A, Giri. B et Joshi. MK – 2020: “Characterization of airborne dust samples collected from core areas of Kathmandu Valley”. Heliyon 6(4): e03791
Papakosta. V, Lopez-Costas. O et Isaksson. S – 2020: “Multi-method (FTIR, XRD, PXRF) analysis of Ertebolle pottery ceramics from Scania, southern Sweden”. Archaeometry 62(4):677–693
Pickard. KJ, Walker. RF et West. NG – 1985: “A comparison of X-ray diffraction and infra-red spectrophotometric methods for the analysis of α-quartz in airborne dusts”. Ann Occup Hyg 29(2):149–167
Pineau. M Baron. F, Mathian. M, Le Deit. L, Rondeau. B et Allard. T – 2020: “Estimating kaolinite crystallinity using near-infrared spectroscopy”. In: 51st Lunar and planetary science conference
Raszewski Z, Nowakowska-Toporowska A, Wezgowiec. J, Nowakowska. D et Wieckiewicz. W – 2020: “Influence of silanized silica and silanized feldspar addition on the mechanical behavior of polymethyl methacrylate resin denture teeth”. J. Prosthet. Dent. 123, 647 e1–647 e7.
Razak. J A, Akil. H M et Ong. H L – 2007: “Effect of inorganic fillers on the flamability behavior of polypropylene composites”. J. Thermoplast. Compos. 20, 195–205.
Repacholi. MH – 1994: “Clay mineralogy: spectroscopic and chemical determinative methods”. Springer Science et Business Media, Berlin.
Sanchez Garcia. L et Guinea. J – 1992 : “Feldespatos, Mineralogía, yacimientos y aplicaciones, Recur ”. Miner. Espa˜na, Textos Univ., 15, CSIC, pp. 441–470.
Silva. A C, Carolina. S D, Sousa. D N et . Silva. E M S – 2019: “Feldspar production from dimension stone tailings for application in the ceramic industry”, J. Mater. Res. Technol. 1–7,
Šontevska. V, Jovanovski. G, Makreski. P, Raškovska A et Šoptrajanov. B – 2008: “Minerals from Macedonia. XXI. Vibrational spectroscopy as identificational tool for some phyllosilicate minerals”. Acta Chimica Slovenica, 55 (4), 757–766.
Stubičan. V et Roy. R – 1961: “Isomorphous substitution and infra-red spectra of the layer lattice silicates”. American Mineralogist: Journal of Earth and Planetary Materials, 46(1-2), 32-51.
Taboada. J, Vaamonde. A, Saavedra. A et Ordonez. C – 2002: “Geostatistical study of the feldspar content and quality of a granite deposit”. Eng. Geol. 65, 285–292.
Taylor. Dg, Nenadic. CM et Crable. JV – 1970: “Infrared spectra for mineral identification”. American Industrial Hygiene Association Journal, 31(1), 100-108.
Vaculikova. L et Plevova. E – 2005: “Identification of clay minerals and micas in sedimentary rocks”. Acta Geodynamica Et Geomaterialia 2(2):67–175.
Van Der Plas. L – 1966: “Chapter 2: The nature of feldspars. In Developments in Sedimentology”. Elsevier Publishing Company: Amsterdam, The Netherland, Volume 6, pp. 19–40.
Vedder. W et McDonald. RS –1963: “Vibrations of the OH ions in muscovite”. The Journal of Chemical Physics, 38(7), 1583-1590.
Vila. J.M. (1980), La chaine alpine d'Algérie orientale et des confins tunisiens (Thèse Doct.) Univ. Paris IV (665 pp.).
Wada. N et Kamitakahara. W A – 1991: “Inelastic neutron-and Raman-scattering studies of muscovite and vermiculite layered silicates”. Physical Review B, 43(3), 2391.
Yousefi. B, Castanedo. CI, Maldague. XP et Beaudoin. G – 2020: “Assessing the reliability of an automated system for mineral identification using LWIR hyperspectral infrared imagery”. Minerals Eng.155:106409
Zanelli. C, Raimondo. M, Guarini. G et Dondi. M – 2011: “The vitreous phase of porcelain stoneware: Composition, evolution during sintering and physical properties”. J. Non Cryst. Solids, 357, 3251–3260.
Zeller. MV et Juszli. MP – 1975: “Infrarot-Vergleichsspektren von Mineralien”, Angewandte Infrarotspektroskopie, Heft 16, Bodenseewerk Perkin-Elmer et Co GmbH, Uberlingen.
Zhang. Y, Hu. Y, Sun. N, Liu. R, Wang. Z, Wang. L et Sun.W – 2018: “Systematic review of feldspar benefication and its comprehensive application. Miner. Eng. 128, 141–152.
Zilles. J U – 2017: “Feldspar and syenites. In Fillers for Polymer Applications. Polymers and Polymerics Composites: A Reference Series”. Springer: Cham, Switzerland, pp. 231–244. Kouloumbi. N, Ghivalos. L G et Pantazopoulou. P – 2005: “Determination of the performance of epoxy coatings containing feldspars fillers”. Pigm. Resin Technol. 34, 148–153.