Biogeochemistry

, Volume 38, Issue 3, pp 303–335 | Cite as

Solute dynamics in soil water and groundwater in a central Amazon catchment undergoing deforestation

  • MICHAEL R. WILLIAMS
  • THOMAS R. FISHER
  • JOHN M. MELACK
Article

Abstract

Hydrochemical changes caused by slash-and-burnagricultural practices in a small upland catchment inthe central Amazon were measured. Soluteconcentrations were analyzed in wet deposition,overland flow, shallow throughflow, groundwater andbank seepage in a forested plot (about 5 ha) and anadjacent plot (about 2 ha) which had been deforestedin July 1989 and planted to manioc, and in streamwater in partially deforested and forested catchments. Measurements were made from November 1988 to June1990. The effects of slash-and-burn agriculturalpractices observed in the experimental plot includedincreased overland flow, erosion, and large losses ofsolutes from the rooted zone. Concentrations ofNO3-, Na+, K+, SO42-,Cl- and Mn in throughflow of the experimentalplot were higher than those of the control plot bymore than a factor of 10. Extensive leaching occurredafter cutting and burning, but solute transfers werediminished along pathway stages of throughflow togroundwater, and particularly within the riparian zoneof the catchment. High concentrations of N and P inoverland flow indicate the importance of usingforested riparian buffers to mitigate solute inputs toreceiving waters in tropical catchments.

Amazon deforestation hydrologic pathway groundwater nitrogen rain forest slash-and-burn agriculture solutes tropical 

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References

  1. Bayley SE & Schindler DW (1991) The role of fire in determining stream water chemistry in northern coniferous forests. In: Mooney HA, Medina E, Schindler DW, Schulze ED & Walker FH (Eds) Ecosystem Experiments, SCOPE 45 (pp 141–165). John Wiley & Sons, New York, 268 ppGoogle Scholar
  2. Bayley SE, Schindler DW, Keaty KG, Parker PB & Stainton MP (1992a) Effects of multiple fires on nutrient yields from streams draining boreal forest and fen watersheds: Nitrogen and phosphorus. Can. J. Fish. Aquat. Sci. 49: 584–596Google Scholar
  3. Bayley SE, Schindler DW, Parker BR, Stainton MP & Beaty KG (1992b) Effects of forest fire and drought on acidity of a base-poor boreal forest stream: Similarities between climatic warming and acidic precipitation. Biogeochemistry 17: 191–204Google Scholar
  4. Blackburn TH (1983) The microbial nitrogen cycle. In: Krumbein W (Ed) Microbial Geochemistry (pp 63-89). Blackwell Scientific Publ., Oxford, 330 ppGoogle Scholar
  5. Boerner RJ & Forman RT(1982) Hydrologic and mineral budgets of New Jersey Pine Barrens upland forests following two intensities of fire. Can. J. For. Res. 12: 503–510Google Scholar
  6. Booth W (1989) Monitoring the fate of the forests from space. Science 243: 1428–1429Google Scholar
  7. Brandes JA, McClain ME & Pimentel TP (1996) 15N evidence for the origin and cycling of inorganic nitrogen in a small Amazonian catchment. Biogeochemistry (in press)Google Scholar
  8. Chorover J, Vitousek PM, Everson DA, Esperanza AM & Turner D. (1994) Solution chemistry profiles of mixed-conifer forests before and after fire. Biogeochemistry 26: 115–144Google Scholar
  9. Fearnside PM (1989) A prescription for slowing deforestation in Amazonia. Environ. Mag. 31: 17–41Google Scholar
  10. Fearnside PM(1990) Deforestation in the BrazilianAmazon. In:Woodwell GM(Ed) The Earth in Transition: Patterns and Processes of Biotic Impoverishment (pp 211–238). Cambridge Univ. Press 530 ppGoogle Scholar
  11. Feller MC & Kimmins JP (1984) Effects of clear cutting and slash burning on stream water chemistry and watershed nutrient budgets in southwestern British Columbia. Wat. Resour. Res. 20: 29–40Google Scholar
  12. Gosz JR (1981) Nitrogen cycling in coniferous ecosystems. In: Clark RE & Rosswal T (Eds) Terrestrial Nitrogen Cycles (pp 405–426). Ecological Bulletins-EFR 33, 714 ppGoogle Scholar
  13. Grier CC (1975) Wildfire effects on nutrient distribution and leaching in a coniferous ecosystem. Can. J. For. Res. 5: 599–607Google Scholar
  14. Hamilton LS & King PN (1983) Tropical Forested Watersheds Hydrologic and Soils Response to Major Uses or Conversions. West-view Press Inc., Boulder, CO, 168 ppGoogle Scholar
  15. Hart SE & Firestone MK (1991) Forest floor-mineral soil interactions in the internal nitrogen cycle of an old-growth forest. Biogeochemistry 12: 103–127Google Scholar
  16. Hodnett MG, Pimentel da Silva L, da Rocha HR & Cruz Senna R (1995) Seasonal soil water storage changes beneath central Amazonian rainforest and pasture. J. Hydro. 170: 233–254Google Scholar
  17. Houghton RA (1990) The future role of tropical forests in affecting the carbon dioxide concentration of the atmosphere. Ambio 19: 204–209Google Scholar
  18. Johnson DW, Cole DW, Gessel SP, Singer MJ & Midden RV (1977) Carbonic acid leaching in a tropical, temperate, subalpine and northern forest soil. Arct. & Alp. Res. 9: 329–343Google Scholar
  19. Jordan CF (1987) Amazonian Rain Forests: Ecosystem Disturbance and Recovery. Springer-Verlag, 133 ppGoogle Scholar
  20. Lee DR & Cherry JA (1979) A field exercise on groundwater flow using seepage meters and mini-peizometers. J. Geol. Educ. 27: 6–10Google Scholar
  21. Leopoldo PR, Franken W & Salati E (1982) Balanco hidrico de pequena bacia hidrografica em floresta Amazonic de terra firme. Acta Amaz. 12: 333–337Google Scholar
  22. Lesack LFW(1993a) Export of nutrients and major ionic solutes from a rain forest catchment in the central Amazon Basin. Wat. Resour. Res. 29: 743–758Google Scholar
  23. Lesack LF (1993b) Water balance and hydrologic characteristics of a rain forest catchment in the central Amazon basin. Wat. Resour. Res. 29: 759–773Google Scholar
  24. Lesack LFW & Melack JM (1991) The deposition, composition, and potential sources of major ionic solutes in rain of the central Amazon basin, Wat. Resour. Res. 27: 2953–2978Google Scholar
  25. LikensGE, Bormann FH, JohnsonNM, FisherDW & Pierce RS (1970) Effects of forest cutting and herbicide treatments on nutrient budgets in the Hubbard Brook watershed-ecosystem. Ecol. Monogr. 40: 23–47Google Scholar
  26. Lobert JM, Scharffe DH, HaoWM, Kuhlbusch TA, Seuwen R, Warneck P & Crutzen PJ (1991) Biomass burning emissions: Nitrogen and carbon containing compounds. In: Levine JS (Ed) Global Biomass Burning (pp 289–304). MIT Press, Cambridge, 569 ppGoogle Scholar
  27. Matson PA & Vitousek PM(1981) Nitrification potentials following clearcutting in the Hoosier National Forest, Indiana. Forest Science 27: 781–791Google Scholar
  28. Matson PA, Vitousek PM, Ewel JJ, Mazzario MJ & Robertson GP (1987) Nitrogen transformations following tropical forest felling and burning on a volcanic soil. Ecology 68: 491–502Google Scholar
  29. McClain ME, Richey JE & Pimentel TP (1994) Groundwater nitrogen dynamics at the terrestrial-lotic interface of a small catchment in the central Amazon basin. Biogeochemistry 27: 113–127Google Scholar
  30. Meyer JL & Tate CM(1983) The effects of watershed disturbance on dissolved organic carbon dynamics of a stream. Ecology 64: 33–44Google Scholar
  31. Muller-Dombios D (1990) Impoverishment in Pacific Islands. In: Woodwell GM (Ed) The Earth in Transition: Patterns and Processes of Biotic Impoverishment (199-210). Cambridge Univ. Press, 530 ppGoogle Scholar
  32. Nortcliff S & Thornes JB (1978) Water and cation movement in a tropical rainforest environment. Acta Amaz. 8: 245–258Google Scholar
  33. Nortcliff S & Thornes JB (1981) Seasonal variations in the hydrology of a small forested catchment near Manaus, Amazonas, and the implications for its management. In: Lal R & Russel EW (Eds) Agricultural Hydrology (pp 37–57). John Wiley & Sons, Chichester, UK, 149 ppGoogle Scholar
  34. Nortcliff S, Thornes JB & Waylen MJ (1979) Tropical forest systems:Ahydrological approach. Acta Amaz. 6: 557–558Google Scholar
  35. Page AL, Miller RH & Keeney DR (1982) Methods of Soil Analysis. American Society of Agronomy, Soil Science Society of America, 1159 ppGoogle Scholar
  36. Parfitt RL (1978) Anion adsorption by soils and soil materials. Adv. Agro. 30: 1–50Google Scholar
  37. Parker GG (1985) The effect of disturbance on water and solute budgets of hillslope tropical rainforest in northeastern Costa Rica. Ph.D. dissertation, Univ. Georgia, 161 ppGoogle Scholar
  38. Peterjohn WT & Correll DL (1984) Nutrient dynamics in an agricultural watershed: Observations on the role of a riparian forest. Ecology 65: 1466–1475Google Scholar
  39. Raison RJ, Keith J & Khanna P (1990) Effects of fire on the nutrient-supplying capacity of forest soils. In: Dyck W & Mees M (Eds) Impact of Intensive Harvesting on Forest Site Productivity. Forest Research Institute Bulletin No 159, Rotorua, New ZealandGoogle Scholar
  40. Salati E & Vose PB (1984) Amazon basin: A system in equilibrium. Science 225: 129–138Google Scholar
  41. Schindler DW, Newbury RW, Beaty KG, Prokopowich J, Ruszczynski T & Dalton JA (1980) Effects of a windstorm and forest fire on chemical losses from forested watersheds and on the quality of receiving streams. Can. J. Fish. Aq. Sci. 50: 17–29Google Scholar
  42. Schock P & Binkley D (1986) Prescribed burning increased nitrogen availability in a mature loblolly pine stand. For. Ecol. Man. 14: 13–22Google Scholar
  43. Shepard JP, Mitchell MJ, Scott TJ & Driscoll CT (1990) Soil solution chemistry of an Adirondack spodosol: lysimetry and N dynamics. Can. J. For. Res. 20: 818–824Google Scholar
  44. Sollins P, Grier CC, McCorison FM, Cromack K, Fogel R & Fredriksen RL (1980). The internal element cycles of an old-growth Douglas-fir ecosystem in western Oregon. Ecol. Monog. 50: 261–285Google Scholar
  45. Sposito G (1989) The Chemistry of Soils. Oxford Univ. Press, New York, 277 pp St. John TV & Rundel PW(1976) The role of fire as amineralizing agent in a Sierran coniferous forest. Oecologia 25: 35–45Google Scholar
  46. Stark NM & Jordan CF (1978) Nutrient retention by the root mat of an Amazonian rain forest. Ecology 59: 434–437Google Scholar
  47. Staver K, Magette W & Brinsfield R (1987) Tillage effects on nutrient and sediment field losses. ASAE paper 87-2086, American Society of Agricultural Engineers, St. Joseph, MIGoogle Scholar
  48. Swank WT, Swift Jr LW & Douglass JE (1988) Streamflow changes associated with forest cutting, species conversions, and natural disturbances. In: Swank WT & Crossley DA (Eds) Forest Hydrology and Ecology at Coweeta (pp 297-312). Springer-Verlag, 469 ppGoogle Scholar
  49. Tardin AT & da Cunha RP (1990) Evaluation of deforestation in the legal Amazonia using Landsat-TM images. INPE-5015-RPE/609Google Scholar
  50. Tate CM & Meyer JL (1983) The influence of hydrologic conditions and successional state on dissolved organic carbon export from forested watersheds. Ecology 64: 25–32Google Scholar
  51. Tiedemann AR, Conrad CE, Dietrich JH, Hornbeck JW, Megehan WF, Viereck LA & Wade DD (1978) Effects of Fire onWater: A State of Knowledge Review. USDA Forest Service General Technical Report WO-10Google Scholar
  52. Tomkins IB, Kellas JD, Tolhurst KG & Oswin DA (1991) Effects of fire on soil chemistry in a Eucalypt forest. Aust. J. Soil Res. 29: 25–47Google Scholar
  53. Ugolini RC, Minden R, Dawson H & Zachara F (1977) An example of soil processes in the Abies amabiliszone of the Central Cascades, WA. Soil Sci. 124: 291–302Google Scholar
  54. Uhl C & Jordan CF (1984) Succession and nutrient dynamics following forest cutting and burning in Amazonia. Ecology 65: 1476–1490Google Scholar
  55. Uhl C, Jordan C, Clark K, Clark H & Herrera R (1982) Ecosystem recovery in Amazon caatina forest after cutting, cutting and burning, and bulldozer clearing treatments. Oikos 38: 313–320Google Scholar
  56. Vegas-Vilarrúbia T, Maas M, Valentí R, Eliás V, Ovalle ARC, Lopez D, Schneider G, Depetris PJ & Douglas I (1994) Small catchment studies in tropical zone. In: Moldan B & Cerny J (Eds) Biogeochemistry of Small Catchments, SCOPE 51 (pp 343-360). John Wiley & Sons,419 ppGoogle Scholar
  57. Vitousek PM (1980) Nitrogen losses from disturbed ecosystems-ecological considerations. In: Rosswall T (Ed) Nitrogen Cycling in West African Ecosystems (pp 39-53). Royal Swedish Academy of Sciences, 450 ppGoogle Scholar
  58. Vitousek PM & ReinersWA(1975) Ecosystemsuccession and nutrient retention:Ahypothesis. Bioscience 25: 376–381Google Scholar
  59. Vitousek PM & Matson PA (1985) Disturbance, nitrogen, availability, and nitrogen losses in an intensively managed loblolly pine plantation. Ecology 66: 1360–1376Google Scholar
  60. Vitousek PM, Gosz JR, Grier CC, Mellilo JM, Reiners WA & Todd RC (1979) Nitrate losses from disturbed ecosystems. Science 204: 469–474Google Scholar
  61. Wallace JB (1988) Aquatic invertebrate research. In: Swank WT & Crossley Jr DA (Eds) Forest Hydrology and Ecology at Coweeta (pp 257-268). Springer-Verlag, 469 ppGoogle Scholar
  62. Williams MR (1993) The effects of deforestation on the water chemistry of a small watershed in central Amazonas. MS thesis, Univ. of Maryland, 254 ppGoogle Scholar
  63. Williams MR & Melack JM (1997) Solute export from forested and partially deforested catchments in the central Amazon. Biogeochemistry 38: 67–102Google Scholar
  64. Williams MR, Fisher TR & Melack JM (1997) The composition and deposition of rain in the central Amazon, Brazil. Atm. Env. 31: 207–217Google Scholar
  65. Woodmansee RG & Wallack LS (1981) Effects of fire regimes on biogeochemical cycles. In: Clark FE & Rosswall T (Eds) Terrestrial Nitrogen Cycles (pp 649-669). Ecological Bulletins, StockholmGoogle Scholar
  66. Woodwell GM, Houghton RA, Stone TA & Park AB (1986) Changes in the area of forests in Rondônia, Amazon Basin, measured by satellite imagery. In: Trabalka J & Reichle K (Eds) The Changing Carbon Cycle: A Global Analysis. Springer-Verlag, New York, 672 ppGoogle Scholar
  67. Wright RF (1976) The impact of forest fire on the nutrient influxes to small lakes in northeastern Minnesota. Ecology 57: 649–663Google Scholar

Copyright information

© Kluwer Academic Publishers 1997

Authors and Affiliations

  • MICHAEL R. WILLIAMS
    • 1
  • THOMAS R. FISHER
    • 1
  • JOHN M. MELACK
    • 2
  1. 1.Horn Point LaboratoriesCenter for Estuarine and Environmental StudiesCambridgeU.S.A
  2. 2.Department of Ecology, Evolution and Marine Biology, and Institute for Computational Earth System ScienceThe University of California at Santa BarbaraSanta BarbaraU.S.A

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