Plant and Soil

, Volume 143, Issue 2, pp 289–297 | Cite as

Effect of growth and subsequent decomposition of cyanobacteria on the transformation of phosphorus in submerged soils

  • Biswapati Mandal
  • S. C. Das
  • L. N. Mandal
Article

Abstract

The effect of growth and subsequent decomposition of cyanobacteria (inoculated and indigenous) on changes in P fractions was studied in four soils under submerged condition.

The growth of cyanobacteria in soils caused an increase in organic P with concomitant decreases in Olsen-P, Al-P, Fe-P, and Ca-P, but little change in reductant-soluble Fe-P and occluded Al-P. Such changes have been attributed to the solubilization of different inorganic P fractions and subsequent assimilation of the released P by cyanobacteria. The decomposition of cyanobacterial biomass in soils caused an increase in Olsen-P with a simultaneous decrease in other P fractions, except the Ca-bound P. Development of intense reducing condition and formation of organic acids with chelating properties have been suggested as the cause of the above changes. Implications of such changes in P fractions due to the growth of cyanobacteria, and of the decomposition of the cyanobacterial biomass for the P nutrition of rice plants are discussed.

Key words

cyanobacteria P transformations submerged soils 

Preview

Unable to display preview. Download preview PDF.

Unable to display preview. Download preview PDF.

References

  1. Bortoletti C, Del Re A and Silva S 1978 Phosphorus released by algae subjected to variations in temperature, pH and ionic concentrations. Agrochimica 22, 5–6.Google Scholar
  2. Bose P, Nagpal U S, Venkataraman G S and Goyal S K 1971 Solubilization of tricalcium phosphate by BGA. Curr. Sci. 40, 165–166.Google Scholar
  3. Brady N C 1990 The Nature and Properties of Soils. 10th ed. Collier-Macmillan, New York.Google Scholar
  4. Bremner J M and Keeney D R 1966 Determination and isotope-ratio analysis of different forms of nitrogen in soils. 3. Exchangeable ammonium, nitrate and nitrite by extraction-distillation methods. Soil Sci. Soc. Am. Proc. 30, 577–587.Google Scholar
  5. Cameron H J and Julian G R 1988 Utilization of hydroxy-apatite by cyanobacteria as their sore source of phosphate and calcium. Plant and Soil 109, 123–124.Google Scholar
  6. Chiou C J and Boyd C E 1974 The utilization of phosphorus from muds by phytoplankton, Scenedesmus dimorphus, and the significance of these findings to the practice of pond fertilization. Hydrobiologia 45, 345–355.Google Scholar
  7. Das S C, Mandal B and Mandal L N 1991 Effect of growth and subsequent decomposition of blue-green algae on the transformation of iron and manganese in submerged soils. Plant and Soil 138, 75–84.Google Scholar
  8. De P K 1939 The role of blue-green algae in nitrogen fixation in rice fields. Proc. Roy. Soc. Lond. 127B, 121–139.Google Scholar
  9. Dorich R A, Nelson D W and Sommers L E 1980 Algal availability of sediment phosphorus in drainage water of the Black Creek watershed. J. Environ. Qual. 9, 557–563.Google Scholar
  10. Dorich R A, Nelson D W and Sommers L E 1985 Estimating algal available phosphorus in suspended sediments by chemical extraction. J. Environ. Qual. 14, 400–405.Google Scholar
  11. Golterman H L, Bakels C C and Jakobs-Mogelin J J 1969 Availability of mud phosphates for the growth of algae, Verh. Internat. Verein. Limnol, 17, 467–479.Google Scholar
  12. Jackson M L 1967 Soil Chemical Analysis. Prentice Hall, London.Google Scholar
  13. Katyal J C and Carter M F 1989 Effect of airflow rate, leaching and presubmergence on ammonia volatilization and apparent denitrification loss of nitrogen from a submerged soil. Soil Sci. 147, 116–125.Google Scholar
  14. Kerby N W, Niven G W, Rowell P and Stewart W D P 1987 Ammonia and amino acid production by cyanobacteria. pp 277–286. In Algal Biotechnology. Eds. TStadler et al. Elsevier Applied Science, U.K.Google Scholar
  15. Lee G F, Jones R A and Rast W 1980 Availability of phosphorus to phytoplankton and its implications for phosphorus management strategies. pp 259–308. In Phosphorus Management Strategies for Lakes. Eds. R CLoehr et al. Ann Arbor Science, Ann Arbor, MI.Google Scholar
  16. Mahapatra I C and Patrick W HJr. 1969 Inorganic phosphate transformation in waterlogged soil. Soil Sci. 107, 281–288.Google Scholar
  17. Mandal L N 1964 Effect of time, starch and lime on the transformation of inorganic phosphorus in waterlogged rice soil. Soil Sci. 97, 127–132.Google Scholar
  18. Mandal L N 1979 Transformation of phosphorus in waterlogged soil. Bull. Indian Soc. Soil Sci. 12, 73–80.Google Scholar
  19. Mandal L N and Das R K 1970 Transformation of applied water soluble phosphate in acidic lowland rice soils. Soil Sci. 107, 263–267.Google Scholar
  20. Mikkelsen D S, DeDatta S K and Obcemea W N 1978 Ammonia volatilization losses from flooded rice soils. Soil Sci. Soc. Am. J. 42, 725–730.Google Scholar
  21. Nalewajko C and Lean D R S 1978 Phosphorus kinetics-algal growth relationships in batch cultures. Mitt. Internat. Verein. Limnol. 21, 184–192.Google Scholar
  22. Patrick W HJr. and Mahapatra I C 1968 Transformation and availability to rice of nitrogen and phosphorus in waterlogged soils. Adv. Agron. 20, 323–359.Google Scholar
  23. Porcella D B, Kumazar S K and Middlebrooks E J 1970 Biological effects on sediment-water nutrient interchange. J. Sanit. Eng. Div. Am. Soc. Chem. Eng. 96, 911–926.Google Scholar
  24. Roger P A and Watanabe I 1986 Technologies for utilizing biological nitrogen fixation in wetland rice: Potentialities, current usage and limiting factors. Fert. Res. 9, 39–77.Google Scholar
  25. Roger P A, Grant I F, Reddy P M and Watanabe I 1987 The photosynthetic aquatic biomass in wetland rice fields and its effect on nitrogen dynamics. pp 43–68. In Efficiency of Nitrogen Fertilizers for Rice. IRRI, Manila, Philippines.Google Scholar
  26. Sager A 1976 Availability of Soil Runoff Phosphorus to Algae. Ph.D. Dissertation, University of Wisconsin, Madison.Google Scholar
  27. Saha K C and Mandal L N 1979 Effect of algal growth on the availability of P, Fe and Mn in rice soils. Plant and Soil 52, 139–149.Google Scholar
  28. Saha K C, Panigrahi B C and Singh P K 1982 Blue-green algae or Azolla additions on the nitrogen and phosphorus availability and redox potential of a flooded rice soil. Soil Biol. Biochem. 14, 23–25.Google Scholar
  29. Singh R N 1961. Role of blue-green algae in nitrogen economy in Indian agriculture. ICAR, New Delhi, 175 p.Google Scholar
  30. Sonzogni W C, Chapra S C, Armstrong D E and Logan T J 1982 Bioavailability of phosphorus inputs to lakes. J. Environ. Qual. 11, 555–563.Google Scholar
  31. Vaidya B S, Patel I M and Joni U M 1970 Secretion of a highly reducing substance by algae in media and its possible role in crop physiology. Sci. Cult. 37, 383–384.Google Scholar
  32. Wildung R E, Schmidt R L and Routson R C 1977 The phosphorus status of eutrophic lake sediments as related to changes in limnological conditions and phospho-mineral components. J. Environ. Qual. 6, 100–104.Google Scholar
  33. Wolf A M, Baker D E, Pionke H B and Kunichi H M 1985 Soil test for estimating labile, soluble, and algae available phosphorus in agricultural soils. J. Environ. Qual. 14, 341–348.Google Scholar

Copyright information

© Kluwer Academic Publishers 1992

Authors and Affiliations

  • Biswapati Mandal
    • 1
  • S. C. Das
    • 1
  • L. N. Mandal
    • 1
  1. 1.Micronutrient Research Laboratory, Department of Agricultural Chemistry and Soil ScienceBidhan Chandra Krishi ViswavidyalayaKalyaniIndia

Personalised recommendations