Phytoextraction of salts by indigenous weeds in arid land

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Research Paper 01/06/2014
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Phytoextraction of salts by indigenous weeds in arid land

Mohammed Awad, Samir G. Al Solaim, Fathy S. El-Nakhlawy
Int. J. Agron. Agri. Res.4( 6), 110-115, June 2014.
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Reclamation of saline soil is becoming one of the most requirements for boosting crop production and sustainable agriculture. This study was conducted to investigate the capacity of three indigenous weeds growing naturally in arid land on west of Saudi Arabia. Salts content and biomass production for each weed species was evaluated. Salts concentration at three depths 0-10, 10-20 and 20-30 cm was estimated at growing and none growing sites for each weed species. The salts content for the weeds was found to be 6.26%, 16.80% and 5.83 % for Setariaverticillata, Dipterygiumglaucum and Tribulusterrestris respectively. Biomass production based on the dry weights was 13.37, 9.24 and 5.63 t ha-1 respectively. The removal efficiency was varied according to soil depth and initial soil salinity concentration.


Al-Oudat M. and Qadir M. 2011. The halophytic flora of Syria. International Center for Agricultural Research in the Dry Areas, Aleppo, Syria viii, 186.

Broadley M. R., Willey N. J. and Mead A. 1999. “A Method to Assess Taxonomic Variation in Shoot Cesium Concentration among Flowering Plants.” Environmental Pollution 106(3), 341-49.

Christian Zörb, Ali Sümer, Ali Sungur, Timothy J. Flowers, Hasan Özcan. 2013. Ranking of 11 coastal halophytes from salt marshes in northwest Turkey according their salt tolerance, Turkish Journal of Botany 37, 1125-1133.

Glenn E., Miyamoto S., Moore D., Brown. J.J., Thompson T.L. and Brown P. 1997. Water requirements for cultivating Salicorniabegelovii with sea water on sand and coastal desert environment. Journal of Arid Environment 36, 711-730.

Glenn E., Hicks N., Riley J., Swingle J. 1996. Seawater Irrigation of Halophytes for Animal Feed in Halophytes and Biosaline Agriculture, 221-236.

Fional. L. Jordan, Molly Robin-Abbott , Raina M. Maier and Edward P. and Glenn. 2002. A comparison of chelator-facilitated metal uptake by a halophyte and a glycophyte. Environmental Toxicology and Chemistry 21(12), 2698–2704.

Lefevre I., Marchal G., Meerts P., Correal E. and Lutts S. 2009. “Chloride Salinity Reduces Cadmium Accumulation by the Mediterranean Halophyte Species AtriplexHalimus L.” Environmental and Experimental Botany 65(1), 142-52.

Manousaki,  Eleni,  and Nicolas Kalogerakis. 2011. “Halophytes—An Emerging Trend in Phytoremediation.” International Journal of Phytoremediation 13(10), 959-69.

Munns R, Tester M. 2008. Mechanisms of Salinity Tolerance. Annual Review of Plant Biology 59, 651-681.

Stuart   J. Roy, Mark Tester, Roberto   A., Gaxiola T. J. and Flowers. 2012. “Plants of saline environments,” in   Access Science,   McGraw-Hill Companies,

Wenjun Ma, Zhenqiang Mao, Zhenrong Yu, Van Mensvoort M. E. F. and Driessen P.M. 2008. Effects of saline water irrigation on soil salinity and  yield  of  winter  wheat–maize  in  North  China Plain, Irrigation and Drainage Systems 22(1), 3-18.

Zaier,   Hanen, TaharGhnaya, Abelbasset Lakhdar,  Rawdha  Baioui,  Rim  Ghabriche, Majda  Mnasri,  SouhirSghair,  Stanley  Lutts, and Chedly Abdelly. 2010. “Comparative Study of Pb-phytoextraction Potential in Sesuvium Portulacastrum and Brassica Juncea: Tolerance and Accumulation.” Journal of Hazardous  Materials 183(1-3), 609-15.