The effect of calcium and pH on nickel accumulation in and rhizotoxicity to pea (Pisum sativum L.) root-empirical relationships and modeling

Environmental Pollution

Volumn 158, Issue 5, 2010, Pages 1850-1856

  Wu, Yonghong ^a   Hendershot, William H ^a  

^a MCGILL UNIVERSITY   (Canada)

Author keywords

Calcium; Equilibrium surface adsorption model; Nickel; Risk assessment; Trace metal toxicity; Transfer functions

Indexed keywords

BINDING CONSTANT; EMPIRICAL EQUATIONS; EQUILIBRIUM SURFACE ADSORPTION MODEL; HIGH PH; ION ADSORPTION; KEY FACTORS; PISUM SATIVUM; RHIZOTOXICITY; ROOT ELONGATION; ROOT GROWTH; SURFACE ADSORPTION; TISSUE CONCENTRATIONS; TRACE METAL; TRACE METAL TOXICITY; TWO-STEP MODEL;

ADSORPTION; BINDING ENERGY; BINDING SITES; BIOCHEMISTRY; CALCIUM; CALCIUM ALLOYS; DISSOLUTION; NICKEL; NICKEL ALLOYS; RISK ASSESSMENT; RISK MANAGEMENT; TOXICITY; TRACE ANALYSIS; TRACE ELEMENTS; TRANSFER FUNCTIONS;

PH EFFECTS;

CALCIUM; NICKEL;

ADSORPTION; BIOACCUMULATION; CALCIUM; LEGUME; NICKEL; NUMERICAL MODEL; PH; RHIZOSPHERE; RISK ASSESSMENT; TOXICITY; TRACE METAL; TRANSFER FUNCTION;

ADSORPTION KINETICS; ARTICLE; BINDING SITE; BIOACCUMULATION; CHEMICAL BINDING; METAL BINDING; NONHUMAN; PEA; PH; PHYTOTOXICITY; PLANT ROOT; PLANT TISSUE; RHIZOTOXICITY; ROOT GROWTH; TISSUE DISTRIBUTION;

CALCIUM; HYDROGEN-ION CONCENTRATION; KINETICS; MODELS, BIOLOGICAL; NICKEL; PEAS; PLANT ROOTS;

PISUM SATIVUM;

EID: 77949879013     PISSN: 02697491     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.envpol.2009.10.046     Document Type: Article

References (33)

1. Benedetti M.F., Milne C.J., Kinniburgh D.G., Van Riemsdijk W.H., and Koopal L.K. Metal ion binding to humic substances: application of the non-ideal competitive adsorption model. Environmental Science and Technology 29 (1995) 446-457
2. Berenson M.L., Levine D.M., and Goldstein M. Intermediate Statistical Methods and Applications (1983), Prentice-Hall, Englewood Cliffs, New Jersey
3. Brown P.H., Welch R.M., and Cary E.E. Nickel: a micronutrient essential for higher plants. Plant Physiology 85 (1987) 801-803
4. Dan T., Hale B., Johnson D., Conard B., Stiebel B., and Veska E. Toxicity thresholds for oat (Avena sativa L.) grown in Ni-impacted agricultural soils near Port Colborne, Ontario, Canada. Canadian Journal of Soil Science 88 (2008) 389-398
5. Environment Canada, 2005. Guidance document on statistical methods for environmental toxicity tests. EPS 1/RM/46, March 2005. pp. F182-F184.
6. Eskew D.L., Welch R.M., and Cary E.E. Nickel: an essential micronutrient for legumes and possibly all higher plants. Science 222 (1983) 621-623
7. Fedorovskaya M.D. Resistance of surface phosphohydrolases of barley root cells to nickel salts is one of factors of plant adaptation to excessive nickel in the environment. Biology Bulletin 31 6 (2004) 591-597
8. Ge Y., Sauvé S., and Hendershot W. Equilibrium speciation of Cd, Cu, and Pb in soil solutions. Communications in Soil Science and Plant Analysis 36 11 (2005) 1537-1556
9. Ge Y., and Hendershot W. Modeling sorption of Cd, Hg and Pb in soils by the NICA [non-ideal competitive adsorption]-Donnan model. Soil and Sediment Contamination 14 (2005) 53-69
10. Gustafson, J.P., 2006. Visual MINTEQ, ver.2.40b. [downloaded 2006 Feb. 21] http://www.lwr.kth.se/English/OurSoftware/vminteq/#download.
11. Hanson J.B. The functions of calcium in plant nutrition. In: Tinker P.B., and Laüchli A. (Eds). Advances in Plant Nutrition vol. 1 (1984), Praeger Scientific, New York 149-208
12. Kinraide T.B. Three mechanisms for the calcium alleviation of mineral toxicities. Plant Physiology 118 (1998) 513-520
13. Kramer K., and Hock B. Molecular basis of toxic effects: inhibition of cellular pathways and structural components. In: Hock B., and Elstner E. (Eds). Plant Toxicology. fourth ed. (2005), Marcel Dekker, New York 331-468
14. Lock K., Van Eeckhout H., De Schamphelaere K.A.C., Criel P., and Janssen C.R. Development of a biotic ligand model (BLM) predicting nickel toxicity to barley (Hordeum vulgare). Chemosphere 66 (2007) 1346-1352
15. Logue B.A., Smith R.W., and Westall J.C. U (VI) adsorption on natural iron-coated sands: comparison of approaches for modeling adsorption on heterogeneous environmental materials. Applied Geochemistry 19 (2004) 1937-1951
16. Mench M., and Martin E. Mobilization of cadmium and other metals from two soils by root exudates of Zea mays L., Nicotiana tabacum L., and Nicotiana rustica L. Plant and Soil 132 (1991) 187-196
17. Nogales R., Gallardo-Lara F., Benitez E., Soto J., Hervas D., and Polo A. Metal extractability and availability in a soil after heavy application of either nickel or lead in different forms. Water Air Soil Pollution 94 (1997) 33-44
18. Nolan A.L., Lombi E., and McLaughlin M.J. Metal bioaccumulation and toxicity in soils-why bother with speciation?. Australian Journal of Chemistry 56 (2003) 77-91
19. Parker D.R., Chaney R.L., and Norvell W.A. Chemical equilibrium models: applications to plant nutrition research. In: Loeppert R.H., Schwab A.P., and Goldberg S. (Eds). Chemical Equilibrium and Reaction Models (1995), SSSA Spec. Publ. 42, SSSA and ASA, Madison(WI) 163-200
20. Parker D.R., Pedler J.F., Ahnstrom Z.A.S., and Resketo M. Reevaluating the free-ion activity model of trace metal toxicity toward higher plants: experimental evidence with copper and zinc. Environmental Toxicology and Chemistry 20 4 (2001) 899-906
21. Peijnenburg W., Baerselman R., De Groot A.C., Jager T., Posthuma L., and Van Veen R.P.M. Relating environmental availability to bioavailability: soil-type-dependent metal accumulation in the oligochaete Eisenia andrei. Ecotoxicology and Environmental Safety 44 (1999) 294-310
22. Rooney C.P., Zhao F.J., and McGrath S.P. Phytotoxicity of nickel in a range of European soils: influence of soil properties, Ni solubility and speciation. Environmental Pollution 145 (2007) 596-605
23. Seregin I.V., Kozhevnikova A.D., Kazyumina E.M., and Ivanov V.B. Nickel toxicity and distribution in maize roots. Russian Journal of Plant Physiology 50 5 (2003) 711-717
24. Taylor G.J., Stadt K.J., and Dale M.R.T. Modeling the interactive effects of aluminum, cadmium, manganese, nickel and zinc stress using the Weibull frequency distribution. Environmental and Experimental Botany 32 3 (1992) 281-293
25. Van Ewijk P.H., and Hoekstra J.A. Calculation of the EC50 and its confidence interval when subtoxic stimulus is present. Ecotoxicology and Environmental Safety 25 (1993) 25-32
26. Voigt, A., 2003. Bioavailability of trace metals to plants. PhD thesis. McGill University.
27. Voigt A., Hendershot W.H., and Sunahara G.I. Rhizotoxicity of Cd and Cu in soil extracts. Environmental Toxicology and Chemistry 25 3 (2006) 692-701
28. Wallace A., Romney R.M., Cha J.W., Soufi S.M., and Chaudhry F.M. Nickel phytotoxicity in plants. Communication in Soil Science and Plant Analysis 8 (1977) 757-764
29. Weng L.P., Lexmond T.M., Wolthoorn A., Temminghoff E.J.M., and Van Riemsdijk W.H. Phytotoxicity and bioavailability of nickel: chemical speciation and bioaccumulation. Environmental Toxicology and Chemistry 22 (2003) 2180-2187
30. 4 concentration. Environmental Science and Technology 29 (1995) 951-959
31. Wu, Y., 2007. Bioavailability and rhizotoxicity of trace metals to pea: development of a terrestrial biotic ligand model. Ph.D. Thesis. McGill University.
32. Wu Y., and Hendershot W.H. Cation exchange capacity and proton binding properties of pea (Pisum sativum L.) roots. Water Air and Soil Pollution 200 (2009) 353-369 10.1007/s11270-008-9918-2
33. Wu, Y., Hendershot, W.H., Bioavailability and Rhizotoxicity of Cd to Pea (Pisum sativum L.). Water Air & Soil Pollution, in press. doi:10.1007/s11270-009-0147-0. Published online August 15, 2009. Available at: http://www.springerlink.com/openurl.asp?genre=article&id=doi:10.1007/s11270-009-0147-0.