Steady-state dissolution kinetics of mineral ferric phosphate in the presence of desferrioxamine-B and oxalate ligands at pH=4-6 and T=24±0.6°C

Chemical Geology

Volumn 320-321, Issue , 2012, Pages 1-8

  Cervini Silva, Javiera ^a,b,c   Kearns, Josh ^c   Banfield, Jillian ^b,c,d  

^a DEPARTAMENTO DE PROCESOS Y TECNOLOGÍA   (Mexico)

^b NASA Astrobiology Institute   (United States)

^c LAWRENCE BERKELEY NATIONAL LABORATORY   (United States)

^d UNIVERSITY OF CALIFORNIA   (United States)

Author keywords

Ligand competition; Microbial dissolution; Phosphorous; Siderophore

Indexed keywords

AL SUBSTITUTION; CONTROL EXPERIMENTS; DATA VALUES; DISSOLUTION BEHAVIOR; DISSOLUTION KINETICS; DISSOLUTION MECHANISM; DISSOLUTION RATES; FIRST-ORDER; HIGH ENERGY; INFINITE DILUTION; INITIAL CONCENTRATION; IRON CONCENTRATIONS; IRON RELEASE; MINEQL+; MINERAL DISSOLUTION; MINERAL STRUCTURE; OXALATE COMPLEXES; PHOSPHOROUS; PROTON ACTIVITY; REFERENCE STATE; SIDEROPHORES; SPECIATION CALCULATIONS; STEADY-STATE VALUES; STOCK SOLUTIONS; SURFACE SITES; THERMODYNAMIC EQUILIBRIUM MODELING; THERMODYNAMIC FORMATION;

ALUMINUM; IRON COMPOUNDS; LIGANDS; PHOSPHATE MINERALS; PHOSPHORUS; PROTONS;

DISSOLUTION;

CHEMICAL COMPOSITION; CONCENTRATION (COMPOSITION); DISSOLUTION; EXPERIMENTAL MINERALOGY; GOETHITE; INHIBITION; IRON; LIGAND; PH; PHOSPHATE; PHOSPHORUS; SIDEROPHORE; TEMPERATURE GRADIENT; THERMODYNAMICS;

EID: 84862207073     PISSN: 00092541     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.chemgeo.2012.05.022     Document Type: Article

References (65)

1. Alexander M. Introduction to Soil Microbiology 1977, Wiley, New York, NY.
2. Babenko Y.S., Tyrygina G.I., Grigor'ev E.F., Dolgikh L.M., Borisova T.I. Biological activity and physiological-biochemical properties of phosphate dissolving bacteria. Mikrobiologiya 1984, 53:427-433.
3. Baes C.F., Mesmer R.E. The Hydrolysis of Cations 1976, Krieger Publishing Company, Malabar, FL, (489 pp.).
4. Banfield J.F., Barker W.W., Welch S.A., Taunton A. Biological impact on mineral dissolution: application of the lichen model to understanding mineral weathering in the rhyzosphere. Proceedings of the National Academy of Sciences of the United States of America 1999, 96:3404-3411.
5. Barber D.A., Martin J.K. Release of organic-substances by cereal roots into soil. New Phytologist 1976, 76:69-80.
6. Bevington P.R., Robinson D.R. Data Reduction and Error Analysis for the Physical Sciences 1992, McGraw Hill, New York.
7. Bondietti G., Sinniger J., Stumm W. The reactivity of Fe(III)(hydr)oxides: effects of ligands in inhibiting the dissolution. Colloids and Surfaces A 1993, 79:157-167.
8. Borer P., Kraemer S.M., Sulzberger B., Hug S.J., Kretzschmar R. Photodissolution of lepidocrocite (γ-FeOOH) in the presence of desferrioxamine B and aerobactin. Geochimica et Cosmochimica Acta 2009, 73:4673-4687.
9. Brewster J.L., Bhat K.K.S., Nye P.H. The possibility of predicting solute uptake and plant growth response from independently measured soil and plant characteristics. The growth and P uptake of rape in soil at a range of P concentrations and a comparison of results with the prediction of a simulation model. Plant and Soil 1976, 44:295-328.
10. Buss H.L., Lüttge A., Brantley S.L. Etch pit formation on iron silicate surfaces during siderophore-promoted dissolution. Chemical Geology 2007, 240:326-342.
11. Casey W.H., Ludwig C. The mechanism of dissolution of oxide minerals. Nature 1996, 381:506-509.
12. Casey W.H., Westrich H.R. Control of dissolution rates of orthosilicate minerals by divalent metal-oxygen bonds. Nature 1992, 355:157-159.
13. Cate W.E., Huffman E.O., Deming M.E. Preparation of crystalline ferric phosphates. Soil Science 1959, 88:130-132.
14. Chatterjee A.K., Nandi P. Solubilization of insoluble phosphates by rhyzosphere fungi of legumes. Trans Bose Res Inst (Calcutta) 1964, 27:115-120.
15. Cervini-Silva J. Dissolution of α-iron (hydr)oxides by trihydroxamate and catecholate siderophores and their adsorption at pH 3-6. Soil Science Society of America Journal 2008, 72:1557-1562.
16. Cervini-Silva J., Sposito G. Steady-state dissolution kinetics of aluminum-goethite in the presence of desferrioxamine-B and oxalate ligands. Environmental Science and Technology 2002, 36:337-342.
17. Cervini-Silva J., Fowle D., Banfield J.F. Biogenic dissolution of a soil cerium-phosphate mineral. American Journal of Science, Biogeochemistry Special Issue 2005, 305:711-726.
18. Cheah S.-F., Kraemer S.M., Cervini-Silva J., Sposito G. Steady state dissolution kinetics of goethite in the presence of desferrioxamine-B and oxalate ligands: implications for the microbial acquisition of iron. Chemical Geology 2003, 198:63-75.
19. Cocozza C., Tsao C.C.G., Cheah S.-F., Kraemer S.M., Raymond K.N., Miano T.M., Sposito G. Temperature dependence of goethite dissolution promoted by trihydroxamate siderophores. Geochimica et Cosmochimica Acta 2001, 66:431-436.
20. Cornejo-Garrido H., Fernández-Lomelín P., Guzmán J., Cervini-Silva J. Dissolution of arsenopyrite (FeAsS) and galena (PbS) in the presence of desferrioxamine-B at pH 5. Geochimica et Cosmochimica Acta 2008, 72:2754-2766.
21. Ehrlich H.L. Geomicrobiology 2002, Marcel Drekker, New York, 768 pp. 4th Edition.
22. 3+. Geochimica et Cosmochimica Acta 2008, 72:3381-3397.
23. Harrison W.J., Thyne G.D. Predictors of diagenetic reactions in the presence of organic acids. Geochimica et Cosmochimica Acta 1992, 56:565-586.
24. Hersman L., Lloyd T., Sposito G. Siderophore-promoted dissolution of hematite. Geochimica et Cosmochimica Acta 1995, 59:3327-3330.
25. 4 with P-solubilizing microorganisms. Soil Biology and Biochemistry 1995, 27:265-270.
26. Iuliano M., Ciavatta L., De Tommaso G. On the solubility constant of strengite. Soil Science Society of America Journal 2007, 71:1137-1140.
27. Johnston C.G., Vestal J.R. Biogeochemistry of oxalate in the antartic cryptoendolithic lichen-dominated community. Microbial Ecology 1993, 25:305-319.
28. Kraemer S.M., Hering J.G. Influence of the solution saturation state on the kinetics of ligand controlled dissolution of oxide phases. Geochimica et Cosmochimica Acta 1997, 61:2855.
29. Kraemer S.M., Butler A., Borer P., Cervini-Silva J. Biogenic ligands and the dissolution of iron bearing minerals in marine systems. Reviews in Mineralogy and Geochemistry 2005, 59:53-84.
30. Kucey R.M.N., Janzen H.H., Leggett M.E. Microbially mediated increases in plant available phosphorous. Advances in Agronomy 1989, 42:199-228.
31. Leyval C., Berthelin J. Interactions between laccaria-laccata, agrobacterium-radiobacter and beech roots - influence on P, K, Mg, and Fe mobilization from minerals and plant growth. Plant and Soil 1989, 117:103-110.
32. Loring J.S., Simanova A.A., Persson P. Highly mobile iron pool from a dissolution-readsorption process. Langmuir 2008, 24:7054-7057.
33. Martell A.E., Smith R.M., Motekaitis R.J. Critically Selected Stability Constants of Metal Complexes Database Version 5.0 1998, Texas A&M University, College Station, TX, USA.
34. Maurice P.A., Lee Y.J., Hersman L.E. Dissolution of Al-substituted goethites by an aerobic Pseudomonas mendocina var. bacteria. Geochimica et Cosmochimica Acta 2000, 64:1363-1374.
35. Maurice P.A., Vierkorn M.A., Hersman L.E., Fulghum J.E. Dissolution of well and poorly ordered kaolinites by an aerobic bacterium. Chemical Geology 2001, 180:81-97.
36. McConnell D. Symmetry of phosphosiderite. American Mineralogist 1939, 24:636.
37. Moore P.A. Effect of redox potential on phosphorous chemistry in soils and sediments. Sixth Symposium on Biogeochemistry of Wetlands, July 11-14, Fort Lauderdale, FL 1999, 130.
38. Moore P.A., Reddy K.R. Role of Eh and pH on phosphorous geochemistry in sediments of Lake Okeechobee, Florida. Journal of Environmental Quality 1994, 23:955-964.
39. Moore P.A., Reddy K.R., Fisher M.M. Phosphorous flux between sediment and overlying water in Lake Okeechobee, Florida: spatial and temporal variations. Journal of Environmental Quality 1998, 27:1428-1439.
40. Nriagu J.O. Solubility equilibrium constant of strengite. American Journal of Science 1972, 272:476-484.
41. Nye P.H. The rate limiting step in plant nutrient absorption from the soil. Soil Science 1977, 123:292-297.
42. Nye P.H. Soil properties controlling the supply of nutrients to the root surface. The Soil-Root Interface 1979, 39-49. Academic Press, New York. J.L. Harley, S. Russell (Eds.).
43. +) of iron and the key composunds of iron. J. Phys. Chem. Ref. Data 1995, 1995, 24:1699-1745.
44. Patrick W.H.J., Gotoh S., Williams B.G. Strengite dissolution in flooded soils and sediments. Science 1973, 179:564-565.
45. Reichard P.U., Kraemer S.M., Frazier S.W., Kretzschmar R. Goethite dissolution in the presence of phytosiderophores: rates, mechanisms, and the synergistic effect of oxalate. Plant and Soil 2005, 276:115-132.
46. Reichard P.U., Kretzschmar R., Kraemer S.M. Dissolution mechanism of goethite in the presence of siderophores and organic acids. Geochimica et Cosmochimica Acta 2007, 71:5636-5650.
47. Rousseau R.W. Handbook of Separation Process Technology 1987, Wiley, IEEE, (1010 pp.).
48. Ruan H.D., Gilkes R.J. Dehydroxylation of aluminous goethite: unit cell dimensions, crystal size, and surface area. Clay Minerals 1995, 43(2):196-211.
49. Schecher W.D., McAvoy D.C. MINEQL+, A Chemical Equilibrium Modeling System 1998, Environmental Research Software, Hallowell, ME.
50. Simanova A.A., Persson P., Loring J.S. Evidence for ligand hydrolysis and Fe(III) reduction in the dissolution of goethite by desferrioxamine-B. Geochimica et Cosmochimica Acta 2010, 74:6706-6720.
51. Simanova A.A., Loring J.S., Persson P. Formation of ternary metal-oxalate surface complexes on α-FeOOH particles. Journal of Physical Chemistry C 2011, 115:21191-21198.
52. Soares H.M.V.M., Conde P.C.F.L., Almeida A.A.N., Vasconcelos M.T.S.D. Evaluation of n-substituted aminosulfonic acid buffer with a morpholino ring for cadmium and lead speciation studies by electroanalytical techniques. Analytica Chimica Acta 1999, 394:325-335.
53. Song Y., Suzuki M., Whittingham M.S. New iron (III) phosphate phases: crystal structure and electrochemical and magnetic properties. Inorganic Chemistry 2002, 41(22):5778-5786.
54. Sparks D.L. Environmental Soil Chemistry 2003, Academic Press, New York, NY, (352 pp.).
55. Stumm W., Morgan J. Aquatic Chemistry 1996, Wiley-Interscience, New York, NY, (1022 pp.).
56. Stumm W., Sulzberger B. The cycling of iron in natural environments. Considerations based on laboratory studies of heterogeneous redox processes. Geochimica et Cosmochimica Acta 1992, 56:3233-3257.
57. Taunton A.E., Welch S.A., Banfield J.F. Geomicrobiological controls on light rare earth element. Y and Ba distribution during granite weathering and soil formation. Journal of Alloys and Compounds 2000, 303-304:30-36.
58. Telford J.R., Raymond K.N. Siderophores. Comprehensive Supramolecular Chemistry 1996, vol. 1:245. Elsevier, Oxford. J.E. Atwood, J.E. Davis, D.D. MacNicol, F. Vögtle (Eds.).
59. Uusitalo R., Turtola E. Determination of redox-sensitive phosphorous in field runoff without sediment preconcentration. Journal of Environmental Quality 2003, 32:70-77.
60. Watteau F., Berthelin J. Microbial dissolution of iron and aluminum from soil minerals-efficiency and specificity of hydroxamate siderophores compared to aliphatic acids. European Journal of Soil Biology 1994, 10:1-9.
61. Welch S.A., Ullman W.J. Dissolution of feldspars in oxalic acid solutions. Proceedings of the 7th Water Rock Interaction Meeting 1992, 127-130. A.A., Balkema, Park City. Y.K. Kharaka, A.S. Maest (Eds.).
62. Welch S.A., Ullman W.J. Feldspars dissolution in acidic and organic solutions: composition and pH on dissolution. Geochimica et Cosmochimica Acta 1996, 60:2939-2948.
63. Willet I.R. The reductive dissolution of phosphate ferrihydrite and strengite. Australian Journal of Soil Research 1985, 23:237-244.
64. Wolff-Boenisch D., Traina S.J. The effect of desferrioxamine B, enterobactin, oxalic acid, and Na-alginate on the dissolution of uranyl-treated goethite at pH 6 and 25°C. Chemical Geology 2007, 243:357-368.
65. Yu Q., Kandegedara A., Xu Y., Rorabacher D.B. Avoiding interferences from Good's buffers: a contiguous series of non-complexing tertiary amine buffers covering the entire range of pH 3-11. Analytical Biochemistry 1997, 253:50-56.