Evaluation of phytoremediation potential of lead and cadmium in rangeland plant species, Dactylis glomerata, Festuca ovina and Medicago sativa

Document Type : Research Paper

Authors

Department of Range Management, Faculty of Natural Resources, Sari Agricultural Sciences and Natural Resources University, Sari, Iran.

Abstract

Potentially toxic elements (PTEs) contain two classes of essential and non-essential elements that are significant in toxicological ecology. These elements have high stability and have the ability to cause toxicity in living organisms. Phytoremediation has been considered as one of the most appropriate and efficient methods to uptake these elements. The aim of this study was to investigate the ability of different forage species to absorb PTEs and to be aware of the compatibility and resistance of each to contamination, a comparison between species with different biological conditions. This study was performed in a greenhouse environment and Dactylis glomerata, Festuca ovina and Medicago sativa species were considered. To measure PTEs (lead and cadmium), dry ash extraction method was used. Also, to determine the phytoremediation potential of plant indices TF, BCF and BAC were used. To compare the data statistically, multivariate analysis of variance test in the form of general linear model was used and for multiple comparison of means, Duncan test was used. The results showed that D. glomerata with increasing concentrations of lead (200 to 800 mg/kg) and cadmium (50 to 200 mg/kg) increased their concentration in shoots and roots by about 84% and 86%, respectively in the shoot and root. The root uptake of M. sativa increased with increasing lead concentration, and as a result, M. sativa is an extractive plant for both cadmium and lead. In Festuca ovina species, with increasing lead concentration, the rate of uptake by roots and shoots was 70% and 58%, respectively, and for cadmium was 79% and 73%, respectively. In general, in the studied species, the efficiency of phytoremediation of lead was higher in the aerial parts to the root, but cadmium of the roots of D. glomerata and F. ovina, had more phytoremediation efficiency than the aerial parts.

Keywords

Abul Kashem, M.D., Singh, B.R., Imamul Huq, S.M., Kawai, Sh., 2008. Cadmium phytoextraction efficiency of arum (Colocasia antiquorum), radish (Raphanus sativus L.) and water spinach (Ipomoea aquatica) grown in hydroponics. Water, Air, & Soil Pollution 192, 273-279.
Akova, D.G., 2018. Heavy metals and their general toxicity on plants. Plant Science Today 5(1), 14-18
Ali, H., Khan, E., Sajad, M.A., 2013. Phytoremediation of heavy metals- concepts and applications. Chemosphere 91, 869-881.
Armand, N., Tavakoli, M., Armand, R., Yousofnia, H., 2019. Investigating the possibility of refining the land soils around the Beybehan beetroot oil refinery by a herb medicine herb. Journal of Plant Research 2: 14. (In Persian)
Atashnama, K., Golchin, A., Esmaeli, M., 2008. Accumulation of some heavy metals in three forage plants of alfalfa, kelp and sainfoin. Conference on Soil, Environment and Sustainable Development, Karaj, Campus of Agriculture and Natural Resources, University of Tehran. 370p. (In Persian)
Bader, N., Alsharif, E., Nassib, M., Alshelmani, N., Alalem, A., 2018. Phytoremediation potential of Suaeda vera for some heavy metals in roadside soil Benghazi, Libya. Journal of Green Chemistry 3(1), 1-24.
Bagheri, Shabestari, E.S., Sheidai, M., Assadi, M., Amini, T.,  2010. Species relationships in Festuca Ovina (Poaceae) of Iran, Gene Conserve 9(38), 247-262.
Benavides, M.P., Susana, M., Gallego Maria, L., 2005. Cadmium toxicity in plants. Toxic Metals in Plants, 17: 21-34.
Bonanno, G., Giudice, R.L., 2010. Heavy metal bioacucumulation by the organs of Phragmites australis (Common reed) and their potential use as contamination indicators. Ecological Indicator 10, 639-645
Bowen HJM. 1979. Environmental chemistry of the elements: Academic Press
Chang Kee, J., Gonzales, M., Ponce, O., Ramirez, L., Leon, V., Torres, A., Curpos, M., Lourza-Moru, R., 2018. Accumulation of heavy metals in native Andean plants: potential tools for soil phytoremediation in Ancash (Peru). Environmental Science and Pollution Research  25, 33957-33966.
Chaney, R.L., Reeves, P.G., Ryan, J.A., Simmons, R.W., Welch, R.M., Angle, J.S., 2004. An improve understanding of soils Cd risks to humans and low costs methods to phytoextract Cd from contaminated soils to prevent soil Cd risks. Biometals 17, 549-553.
Cheraghi, M., Lorestani, B., Khorasani, N., Yousefi, N., Karami, M., 2011. Findings on the phytoextraction and phytostabilization of soils contaminated with heavy metals, Biological Trace Element Research 144(1-3), 1133-1141
Daeezadeh, R., Sori, M., Zandi, A., Moetamedi, J., 2016. Evaluation of potential of Agropyron intermedium and Dactylis glomerata in phytoremediation of light crude oil contaminated soil under greenhouse conditions. Rangeland and Watershed Management 70(2), 315-331. (In Persian)
Dehdari, C., Khorsandi, J., Shojaee, R., 2017. Investigation of the effects of zeolite application on yield of rangeland species Cymbopogon olivieri, Medicago sativa and Medicago scutellata. Rangeland and watershed management. 70 (2), 364-374. (In Persian)
Ebrahimi, M., Madrid Díaz, F., 2014. Use of Festuca ovina L. in chelate assisted phytoextraction of copper contaminated soils. Jour. Rangeland Science 4(3), 171-181.
Ebrahimi, M., Jafari. M., Savaghebi. G.R., Azarnivand, H., Madrid. F., 2014. Investigation of Heavy Metals Accumulation in Plants Growing in Contaminated Soils (Case Study: Qazvin Province, Iran). Journal of Rangeland Science 4(2), 91-99.
FAO/WHO.1984. List of contaminants and their maximum levels in foods. Codex Alimentarius Commission. Available at http://www.codexalimentarius.org. (Accesed on 10 November 2012).
Fontem lom, A., Ngwa, E.S.A., Chikoye, D., Suh, C.E., 2014. Photeremediation Potential of weeds in heavy metal contaminated siols of the Bassa Industrial zone of Douala, Cameroon. International Journal of Phytoremedation 16, 302-319.
Garg, G., Kataria, S.K., 2009. Phytoremediation potential of Raphanus sativus, Brassica juncea and Triticum aestivum (1) for copper contaminated soil. Proceedings of the 53rd Annual meeting of the international Society for the Systems Sciences Brisbane, Australia.
Gavrilescu, M., 2022. Enhancing phytoremediation of soils polluted with heavy metals. Current Opinion in Biotechnology 74, 21-31.
Ghasemi, R., Tatian, M., Tamartash, R., 2015. Ecological study of Festuca ovina rangeland species in summer rangelands of Mazandaran province (Case study: Gaduk rangelands). Conference on Medicinal Plants. (In Persian)
Ghorbani, A., Pournemati, A., Ghasemi, Z., 2017. Comparison of some ecological factors in the distribution of Dactylis glomerata and Thymus kotschyanus Boiss and Hohen in the south of Ardabil province. Rangeland and Watershed Management 7 (2), 444-458. (In Persian)
Glick, B. R. 2010. Using soil bacteria to facilitate phytoremediation. Biotechnology Advances 28, 365-374.
Guerra Sierra, B., Guerrero, J.M., Sookolski, S., 2021. Phytoremediation of Heavy Metals in Tropical Soils an Overview, Ssustainability13, 1-24.
Habib, R., Heshmati, F., Ebrahimi, C., 2017. Investigation of the role of Megatrium and Bacillus subtilis in increasing phytoremediation of Agropyron cristatum and Achillea millefolium species in oil-contaminated soils (Case study: Soils around Tehran refinery). Plant Ecosystem Protection 5(15), 134-144. (In Persian)
Hesami, R., Salimi, A., Ghaderian, S.M., 2017. Lead, zinc, and cadmium uptake, accumulation, and phytoremediation by plants growing around Tang-e Douzan lead–zinc mine, Iran. Environmental Science and Pollution Research.
Jafari, M., Moameri, M., Jahantab, A., Zargam, C., 2016. Effect of compost and biochar on phytoremediation ability of Bromus tomentellus in greenhouse conditions. Scientific Journal - Rangeland Research 11(2), 146-206. (In Persian)Jiang, J., Wang, J., Liu, S., Lin, C., He, M., Liu, X., 2013. Background, baseline, normalization, and contamination of heavy metals in the Liao River Watershed sediments of China. Journal of Asian Earth Sciences 73, 87-94.
Kabata, A., Pendias, H., 2011. Trace metals in soils and plants, CRC Press, Boca Rotan, Fla, USA, 4nd edition. 534 p.
Karpiscak, M.M., Whiteaker, L.R., Artiola, J.F., Foster, K.E., 2001. Nutrient and heavy metal uptake and storage in constructed wetland systems in Arizona. Water Science and Technology 44, 455-462.
Kholdbryn, B., Islamzadeh T., 2002. Mineral nutrition of higher plants. In tow Volumes Shiraz University Press. (In Presian)
Kofi, A., Akoto, R., 2018. Assisted ohytormediation of heavy metal contaminated soil from a mined site with Typha latifolia and Chrysopogon zizanioides. Ecotoxicology and Environmental Safety pp. 97-104.
Khosrobaky, N., Myrzaaghaei, M., Tavakoli, H., 2009. “Phytoremediation, amethod for purification of wastewater pollution in order to protect the environment and saving water,” Scientific Conference of Water Challenge in Qom, the past, present and future, Qom, Iran. (In Persian)
Ladislas, S., El-Mufleh, A., Gérente, C., Chazarenc, F., Andrès, Y., Béchet, B., .2012. Potential of aquatic macrophytes as bioindicators of heavy metal pollution in urban stormwater runoff. Water, Air, & Soil Pollution 223(2), 877–888.
Lei, W., Peishi, Q., Win, M., 2011. Phytoremediation prospects of heavy metals by indigenous plants growing in industrial polluted soils. International Conference on Computer Distributed Control. 
Lindsay, W.L., Norvell, W.A., 1978. Development of DTPA soil test for Zinc, Iron, manganese and copper. Journal of Soil Science Society America 42, 421-428.
Mahdavian, K., Ghaderian, S.M., Torkzadeh-Mahani, M., 2017. Accumulation and phytoremediation of Pb, Zn, and by plants growing on Koshk lead-zinc mining area, Iran. J Soils Sediments 17(5), 1310-1320.
Moameri, M., Jafari, M., Tavili, A., Motasharezadeh, B., Zare Chahouki, M., 2014. Rangeland Plants Potential for phytoremedation of contaminate soils with lead, Zinc, Cadmium and Nickel (Case study: rangelands around national lead & zinc factory, Zanjan, Iran), Journal of Rangeland Scince 2(7), 160-170.
Mohebi, A., 2012. Investigation of the effects of planting corn, alfalfa and sunflower on the growth rate and uptake of elements by dates in a lead-contaminated soil. Journal of Soil Research (Soil and Water Sciences) 26(2), 327-337. (In Persian)
Rachieru, M.S., Faciu, M.E., Ifrim, I., Stefanescu, I., Kamari, A., Stamate, M., Lazăr., 2017. Heavy metals and Gamma radioactivity bioaccumulation Artemisia absinthium L. grown on a waste dump. Environmental Engineering and Management Journal 16, 859-867.
Norozi Fard, P., Mortazavi, S., Ildromi, A., 2016. Common reed (Phragmites australis) as a bio refining and monitoring plant of pollution resulting from heavy metals (case study:  Dez river, Dezful, Iran), Journal of Rangeland Science 1(6), 10-23.
Orisakwe, O.E., Nduka, J.K., Amadi, C.N., Dike, D., Obialor, O.O., 2012. Evaluation of potential dietary toxicity of heavy metals of vegetables. Journal of Environmental and Analytical Toxicology 2(3), 50-61.
Oskoee, T., Jafari, M., Javadi, V., Tahmores, M., 2019. Evaluation of phytoremediation ability of rangeland species to soils contaminated with copper and manganese. Iranian Soil and Water Research 2(7), 1056- 1070. (In Persian)
Parsadost, F., Bahrieni nejad, R., Safari, A., Kaboli, M., 2007. Phytoremediation of lead element by rangeland and native plants in contaminated soils of Irankooh region of Isfahan. Research and construction in natural resources 75, 54-63. (In Persian)
Reeves, R.D., Baker, A.J.M., Brooks, R.R., 1995. Abnormal Accumulation of Trace Metals by Plants. Mining Environmental Management (120), 4-8.
Reeves, R. D., 2006.Hyper accumulation of trace elements by plants. In: Morel JL, Echevarria G, Goncharova N, editors. Phytoremediation of Metal-contaminated Soils.NATO Sciences Series 68.Springer, New York. pp. 25-52.
Santos, L.H.M.L.M., Gros, M., Rodriguez-Mozaz, S., Delerue-Matos, C., Pena, A., Barcelo, D., 2013. Contribution of hospital effluents to the load of pharmaceuticals in urban wastewaters: identification of ecologically relevant pharmaceuticals. Science Total Environment (461–462), 302-316
Shahid, M., Arshad, M., Kaemmerer, M., pinelli, E Probst, A., Baque, D., Pradere, P & Dumat, C. 2012. Long-term field metal extraction by Pelargonium: phytoextraction efficiency in relation to plant maturity. Int. J. Phytoremediation 14, 493- 505
Shetangeeva, I., 2008. Uptake of uranium and thorium by native and cultivated plants. Journal of environment activity (1), 32-39.
Soleimani, M., Hajabbasi, M.A., Afyuni, M., Charkhabi, A.H., Shariatmadari, H., 2009. Bioaccumulation of Nickel and Lead by Bermuda Grass (Cynodon dactylon) and Tall Fescue (Festuca arundinacea) from Two Contaminated Soils. Caspian Journal of Environmental Sciences 7(2), 59-70
Tangahu, B.V., Sheikh Abdullah, S.R., Basri, H., Idris, M., Anuar, N., Mukhlisin, M., 2015. A review on heavy metals (as, pb, and hg) uptake by plants through phytoremediation. Open Journal of Ecology 5, 375-388.
Tavili, A., Jahantab, E., Jafari, M., Motesharezade, B., Zarghan, N., Saffari Amman, M., 2019. Assessment of TPH and nickel contents associated with tolerant native plants in petroleum-polluted area of Gachsaran, Iran. Arabian Journal of Geosciences 12, 325.
Wang, F. Q., Li, Y. j., Zhang, Q., Qu, J., 2015.   Phytoremediation of cadmium, lead and zinc by Medicago sativa L. (alfalfa):  A study of different period.  Bulgarian Chemical Communications  Bulgarian Chemical Communications 47, 167-172.
Xoing, P.P., He, C. q., Kokyo, O., Chen, X., Lio, X., Cheng, X., Wu, Ch., Shi, Z., 2018. Medicago sativa L. enhances the phytoextraction of cadmium and zinc by Ricinus communis L. on contaminated land in situ. Ecological Engineering 116, 61-66.
Yari Moghadam N., Cheraghi, M., Hasani, A.H., Javid, A.H., 2013. Evaluation of heavy metals (Cu, Zn, Pb and Cd) in Hamadan Abshine River. Journal of Health and Development 2(4), 296304. (In Persian)
Yoon, J., Cao, X., Zhou, Q., Ma, L. Q., 2006. Accumulation of Pb, Cu, and Zn in native plants growing on a contaminated Florida site. Science of the Total Environment 368, 456-464.
Zafaranian, F., Rezvani, F., Rajali, M., Ardakani, R., Noormohamadi, S., 2009. The ability of alfalfa (Medicago sativa) to harvest heavy metals from the soil. Environmental Science 7(2), 77-90. (In Persian)
Zhang, Q., Li, Y., Phanlavong, P., Wang, Z., Jiao, T., Qiu, H., Peng, Q. 2017a. Highly efficient and rapid fluoride scavenger using an acid/ base tolerant zirconium phosphate nanoflake: behavior and mechanism. Journal. Clean. Prod. 161, 317- 326.
Zhang, Q., Li, Y., Yang, Q., Chen, H., Chen, X., Jiao, T., Peng, Q., 2017b. Distinguished Cr (VI) capture with rapid and superior capability using polydopamine microsphere: behavior and mechanism. Journal Hazardous Materials 342, 732.
Zhang, X.e., Li, M., Yang, H., Li, X., Cui, Z., 2018. Physiological responses of Suaeda glauca and Arabidopsis thaliana in phytoremediation of heavy metals. Journal of Environmental Management 223, 132-139.
Zoufan, P., Saadatkhah, A., Rastegharzadeh, S., 2013. Comparison of potentiality of heavy metals accumulation in the plants surrounding steel industries in the Mahshahr-Bandar Imam road, Ahvaz. Journal of Plant Biology 5(16), 41-56.