Winter saline accumulation in the a Bare Aridosols: the example of the bowl of ouargla (northern sahara Algeria)

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Research Paper 01/03/2021
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Winter saline accumulation in the a Bare Aridosols: the example of the bowl of ouargla (northern sahara Algeria)

Abdelhak Idder, Imed-Eddine Nezli, Tahar Idder, Salim Azib
Int. J. Biosci. 18(3), 205-213, March 2021.
Copyright Statement: Copyright 2021; The Author(s).
License: CC BY-NC 4.0

Abstract

The soil landscape of the Ouargla basin is dominated mainly by halomorphy and hydromorphy. These phenomena are the consequence of the high salinity in the region. It was a question of identifying the ionic repartition and the formation of salts from the concentrations found in the soil solution under the influence of the winter climate presenting an evaporating power visible on the surface added to an excessively salty groundwater at the base (C5S3). This bare soil was analyzed through six profiles dug according to the direction of groundwater flow. The granulometric nature of this soil is sandy-limonous, hence the low expression of exchange phenomena. Based on the saline profile of the horizons examined in winter, it is observed that all dosed ions undergo a disproportionate ascent from the bottom to the top of the profile. It is observed that the horizontal movement of salinity follows the direction of the phreatic stream. The concentrations of the ions indicate an imbalance among the cations in favour of the Ca+2 and the anions in favor of so4-2chlorine. This configuration is confirmed by the majority presence of the white salt materialized by the formed salts, namely The NaCl and Na2SO4. In addition, results indicate that the different salts identified mass primarily in large quantities on the surface, thus giving it the degraded saline character type A. The majority chlorine and sodium in the soil solution offer sodium chroride chemical facies. Faced with the concentrations observed, this type of soil is not suitable for any crop.

Bazilevich NI, Pankova EI. 1968. A tentative of classifying soils according to salinization.  Pachvavedena 11, 3-16.

Castany G. 1982. Sedimentary basin of the northern Sahara (Algeria, Tunisia). Continental Intercalaire and Terminal Complex aquifers. Bulletin du Bureau de Recherches Géologiques et Minières 2, 127-147.

Daddi Bouhoun M. 2010. Contribution à l’étude de l’impact de la nappe phréatique et des accumulations gypso-salines sur l’enracinement et la nutrition du palmier dattier dans la cuvette de Ouargla (sud est algerien). Thèse doctorat en science écophysiologie  végétale, Université Badji Mokhtar Annaba, 365 p.

Droubi A, Fritz B, Tardy Y. 1976. Balances between minerals and solutions. Computational programs applied to the prediction of soil salt and optimal irrigation backs. Books ORSTOM, pedology series 14(1), 13-38.

Duchaufour P. 1977. Pédogénèse et classification. Masson, Paris, p 477.

Gaucher G, Burdin S. 1974. Géologie, géomorphologie et hydrogéologie des terrains salés. Presses universitaires de France, p 230.

Halitim A. 1985. Contribution a l’etude des sols des zones arides (hautes plaines steppiques de l’Algerie): morphologie, distribution et role des sels dans la genese et le comportement des sols. Sciences du Vivant. Ecole Nationale Supérieure Agronomique, p 384.

Hullin MR. 1983. Drainage course. Part dedicated to salty soils. Polycopy course, Vol. 3, Institut National d’Aronomie, El-Harrach Algiers 139 p.

Idder A, Nezli I, Idder T. 2012. Compartimentation et accumulation estivale des sels neutres dans les aridisols sableux nus de la cuvette d’Ouargla (Sahara algérien). Lebanese Science Journal 15(1), 41-50.

Idder A, Nezli IE, Idder T, Cheloufi H, Serraye A. 2016. Intrusion minérale par modélisation géochimique dans les textures sableuses des sols. Le cas du Sahara septentrional algérien. Journal of Materials and Environmental Science 7(10), 3724-3729.

Idder T, Idder A, Tankari Dan-Badjo A, Benzida A, Merabet S, Negais H, Serraye A. 2014. Les oasis du Sahara algérien, entre excédents hydriques et salinité. Revue des sciences de l’eau 27(2), 155-164. https://doi.org/10.7202/1025565ar

Idder T. 1998. La dégradation de l’environnement urbain liée aux excédents hydriques au Sahara algérien. Impact des rejets d’origine agricole et urbaine et techniques de remédiation proposées. L’exemple de Ouargla. Thèse de doctorat, université d’Angers, p 284.

Nesson C. 1978. L’évolution des ressources hydrauliques dans les oasis du Bas-Sahara algérien. In: Recherche sur l’Algérie. Ed. CNRS, Paris, 7-100.

Nezli I. 2009. Approche géochimique des processus d’acquisition de la salinité des eaux de la nappe phréatique de la basse vallée de l’oued M’ya (Ouargla). Thèse de doctorat, Université de Biskra, Algérie, p 117.

Rouvillois-Brigol M. 1975. Le pays de Ouargla (Sahara algérien): variations et organisation d’un espace rural en milieu désertiqueUniversité de Paris-Sorbonne, p 361.

Ruellan A, Dosso M. 1993. Regards sur le sol. Editions Foucher, Paris, p 192.

Servant I. 1978. Salinity in soil and water: characterization and problems of irrigation drainage. Bulletin du Bureau de Recherches Géologiques et Minières 2, 123-142.

Simonneau P, Aubert G. 1963. L’utilisation des eaux salées au Sahara. Annuaire d’Agronomie Orstom, Section de Pédologie 14(5), 859-872.

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