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Operational Evaluation of Phoslock Phosphorus Locking Technology in Laguna Niguel Lake, California

  • West M. Bishop
  • Terry McNabb
  • Ian Cormican
  • Ben E. WillisEmail author
  • Shaun Hyde
Article

Abstract

Management strategies that prevent the onset of nuisance and noxious cyanobacteria blooms are needed to preserve the integrity and safety of freshwater resource uses. Scientifically defensible data are needed regarding efficacy of proactive approaches in order to assist water resource managers in making informed decisions. As phosphorus availability has been indicated as a crucial aspect of cyanobacteria presence/dominance in freshwater systems, the integration of novel technologies to inactivate phosphorus is a critical component to achieve improved water quality. Phoslock (Phoslock Water Solutions, Ltd.) phosphorus locking technology is composed of the element lanthanum in a bentonite clay matrix that has a high specificity to bind and inactivate soluble reactive phosphorus. This research evaluated the phosphorus binding efficiency of Phoslock in aqueous and sediment matrices and the consequent impact on algae assemblage composition and water quality parameters. Laguna Niguel Lake in California afforded an opportunity to evaluate the operational effectiveness of Phoslock in a system historically plagued by high phosphorus concentrations, potentially toxic cyanobacteria (Aphanizomenonflos-aquae dominant), and lake closures. Phoslock was able to rapidly (<2 weeks) and significantly (p < 0.0005) decrease total (>80 %) and free reactive (>95 %) phosphorus in the water column and shift potentially releasable sediment phosphorus fractions to residual forms after treatment. Despite documented cyanobacteria blooms and high pretreatment cell densities, cyanobacteria levels remained below or near detection limits and only comprised a small fraction of the algae assemblage following Phoslock application. This study provides water resource managers an information on operational implementation and efficacy of a phosphorus binding technology.

Keywords

Phosphorus Cyanobacteria In situ management Water quality 

Notes

Acknowledgments

The authors thank AquaTechnex LLC personnel for their diligence in sampling, efficiency in application of Phoslock, and overall leadership of this project. Additional thanks to Orange County Parks and Recreation for their cooperation in implementation of this project and Phoslock Water Solutions, Ltd. for their technical support of this project.

References

  1. Boström, B., Andersen, J. M., Fleischer, S., & Jansson, M. (1988). Exchange of phosphorus across the sediment water interface. Hydrobiologia, 170, 229–244.CrossRefGoogle Scholar
  2. Briand, J. F., Jacquet, S., Bernard, C., & Humbert, J. F. (2003). Health hazards for terrestrial vertebrates from toxic cyanobacteria in surface water ecosystems. Veterinary Research, 34, 361–377.CrossRefGoogle Scholar
  3. Carpenter, S. R. (2008). Phosphorus control is critical to mitigating eutrophication. Proceedings of the National Academy of Sciences of the United States of America, 105, 11039–11040.CrossRefGoogle Scholar
  4. Chang, S. C., & Jackson, M. L. (1957). Fractionation of soil phosphorus. Soil Science, 84, 133–144.CrossRefGoogle Scholar
  5. Chorus, I., & Bartram, J. (1999). Toxic cyanobacteria in water: a guide to public health significance, monitoring and management. London: WHO. Chapman & Hall. 416 pp.CrossRefGoogle Scholar
  6. Clearwater, S. J. (2004). Chronic exposure of midge larvae to Phoslock. NIWA (National Institute of Water & AtmosphericResearch). Prepared for Ecowise Environmental Pty Ltd. NIWA Client Report No. AUS2004-005, August 2004.Google Scholar
  7. Clearwater, S. J.& Hickey,C. W. (2004). Ecotoxicity testing of Phoslock on sediment-dwelling aquatic biota and rainbow trout.NIWA (National Institute of Water & Atmospheric Research). Prepared for Ecowise Environmental Pty Ltd. NIWA Client ReportNo. AUS2004-004, June 2004.Google Scholar
  8. Diatloff, E., Asher, C. J., & Smith, F. W. (1993). Use of geochem-pc to predict rare-earth element (REE) species in nutrient solutions. Plant and Soil, 156, 251–254.CrossRefGoogle Scholar
  9. Dignum, M., Hoogveld, H. L., Floris, V., Gons, H. J., Matthijs, H. C. P., & Pel, R. (2004). Flow cytometric detection of phosphatase activity combined with 13C-CO2 tracer-based growth rate assessment in phytoplankton populations from a shallow lake. Aquatic Microbial Ecology, 37, 159–169.CrossRefGoogle Scholar
  10. Douglas, G. B. (2002). US Patent 6350383: remediation materialand remediation process for sediments. Alexandria, VA: U.S. Patent and Trademark Office.Google Scholar
  11. Firsching, F. H., & Brune, S. N. (1991). Solubility products of the trivalent rare-earth phosphates. Journal of Chemical and Engineering Data, 36, 93–95.CrossRefGoogle Scholar
  12. Ganf, G. G., & Oliver, R. L. (1982). Vertical separation of the light and available nutrients as a factor of causing replacement of Green algae by Blue-green algae in the plankton of a stratified lake. Journal of Ecology, 70, 829–844.CrossRefGoogle Scholar
  13. Ghadouani, A., Pinel-Alloul, B., & Prepas, E. E. (2003). Effects of experimentally induced cyanobacterial blooms on crustacean zooplankton communities. Freshwater Biology, 48, 363–381.CrossRefGoogle Scholar
  14. Gibbs, M., Hickey, C. W., & O¨ zkundakci, D. (2011). Sustainability assessment and comparison of efficacy of four P-inactivation agents for managing internal phosphorus loads in lakes: sediment incubations. Hydrobiologia, 658, 253–275.CrossRefGoogle Scholar
  15. Gonsiorczyk, T., Casper, P., & Koschel, R. (1998). Phosphorus binding forms in the sediment of an oligotrophic and a eutrophic hardwater lake of the Baltic lake district (Germany). Water Science and Technology, 37, 51–58.CrossRefGoogle Scholar
  16. Haghseresht, F., Wang, S., & Do, D. D. (2009). A novel lanthanum-modified bentonite, Phoslock, for phosphate removal from wastewaters. Applied Clay Science, 46, 369–375.CrossRefGoogle Scholar
  17. Hallegraeff, G. M. (1993). A review of harmful algal blooms and their apparent global increase. Phycologia, 32, 79–99.CrossRefGoogle Scholar
  18. Hupfer, M., Gächter, R., & Giovanoli, R. (1995). Transformation of phosphorus species in settling seston and during early sediment diagenesis. Aquatic Sciences, 57, 305–324.CrossRefGoogle Scholar
  19. Jansson, M., Olsson, H., & Petterson, K. (1988). Phosphatases; origin, characteristics and function in lakes. Hydrobiologia, 170, 157–175.CrossRefGoogle Scholar
  20. Jeppesen, E. M., Søndergaard, J. P., Jensen, K. E., Havens, O., Anneville, L., Carvalho, M. F., et al. (2005). Lake responses to reduced nutrient loading: an analysis of contemporary long-term data from 35 case studies. Freshwater Biology, 50, 1747–1771.CrossRefGoogle Scholar
  21. Kapanen, G. (2008). Phosphorus fractionation in lake sediments. Estonian Journal of Ecology, 57, 244–255.CrossRefGoogle Scholar
  22. Kromkamp, J., Van Den Heuvel, A., & Mur, L. R. (1989). Phosphorus uptake and photosynthesis by phosphate-limited cultured of the cyanobacterium Microcystis aeruginosa. British Phycological Journal, 24, 347–355.CrossRefGoogle Scholar
  23. Lukkari, K., Hartikainen, H., & Leivuori, M. (2007). Fractionation of sediment phosphorus revisited. I: fractionation steps and their biogeochemical basis. Limnology and Oceanography-Methods, 5, 433–444.CrossRefGoogle Scholar
  24. Lurling, M., & Tolman, Y. (2010). Effects of lanthanum and lanthanum-modified clay on growth, survival and reproduction of Daphnia magna. Water Research, 44, 309–319.CrossRefGoogle Scholar
  25. Mehner, T., Diekmann, M., Gonsiorczyk, T., Kasprzak, P., Koschel, R., Krienitz, L., et al. (2008). Rapid recovery from eutrophication of a stratified lake by disruption of internal nutrient load. Ecosystems, 11, 1142–1156.CrossRefGoogle Scholar
  26. Meis, S., Spears, B. M., Maberly, S. C., O’Malley, M. B., & Perkins, R. G. (2012). Sediment amendment with Phoslock in Clatto Reservoir (Dundee, UK): investigating changes in sediment elemental composition and phosphorus fractionation. Journal of Environmental Management, 93, 185–193.CrossRefGoogle Scholar
  27. Microsoft. (2010). Microsoft Excel [computer software]. Redmond, Washington.Google Scholar
  28. Nürnberg, G. (1997). Coping with water quality problems due to hypolimnetic anoxia in Central Ontario Lakes. Water Quality Research Journal of Canada, 32, 391–405.Google Scholar
  29. Ode, P. R. (2007). Standard operating procedures for collecting macroinvertebrate samples and associatedphysical and chemical data for ambient bioassessments in California. California State Water Resources Control Board Surface Water Ambient Monitoring Program (SWAMP) Bioassessment SOP 001.Google Scholar
  30. Paerl, H. W. (1990). Physiological ecology and regulation of N2 fixation in natural waters. Advances in Microbial Ecology, 11, 305–344.CrossRefGoogle Scholar
  31. Paerl, H. W., Prufert, L. E., & Ambrose, W. W. (1991). Contemporaneous N2 fixation and oxygenic photosynthesis in the nonheterocystous mat-forming cyanobacterium Lyngbya aestuarii. Applied and Environmental Microbiology, 57, 3086–3092.Google Scholar
  32. Pettersson, K., & Istvanovics, V. (1988). Sediment phosphorus in Lake Balaton: forms and mobility. Archives Hydrobiology, 30, 25–41.Google Scholar
  33. Psenner, R., Boström, B., Dinka, M., Petterson, K., Pucsko, R., & Sager, M. (1988). Fractionation of phosphorus in suspended matter and sediment. Archives Hydrobiology, 30, 98–103.Google Scholar
  34. Reitzel, K., Andersen, F. O., Egemose, S., & Jensen, H. S. (2013). Phosphate adsorption by lanthanum modified bentonite clay in fresh and brackish water. Water Research, 47(8), 2787–2796.CrossRefGoogle Scholar
  35. Richards, A. B., &Rogers, D. C. (2006). List of freshwater macroinvertebrate taxafrom California and adjacent states including standard taxonomic effort levels.Southwest Association of Freshwater Invertebrate Taxonomists (SAFIT). 215 pp.Google Scholar
  36. Robb, M. S., Greenop, B., Goss, Z., Douglas, G., & Adeney, J. (2003). Application of Phoslock, an innovative phosphorus binding clay, to two Western Australian waterways: preliminary findings. Hydrobiologia, 494, 237–243.CrossRefGoogle Scholar
  37. Ross, G., Haghseresht, F., & Cloete, T. E. (2008). The effect of pH and anoxia on the performance of Phoslock, a phosphorus binding clay. Harmful Algae, 7(4), 545–550.Google Scholar
  38. Rydin, E., & Welch, E. B. (1999). Dosing alum to Wisconsin lake sediments based on in vitro formation of aluminum bound phosphate. Lake and Reservoir Management, 15, 324–331.CrossRefGoogle Scholar
  39. Schindler, D. W. (2012). The dilemma of controlling cultural eutrophication of lakes. Proceedings of the Royal Society of Biological Sciences, 279, 4322–4333.CrossRefGoogle Scholar
  40. Schindler, D. W., Hecky, R. E., Findlay, D. L., Stainton, M. P., Parker, B. R., Paterson, M., et al. (2008). Eutrophication of lakes cannot be controlled by reducing nitrogen input: results of a 37 year whole ecosystem experiment. Proceedings of the National Academy of Sciences of the United States of America, 105, 11254–11258.CrossRefGoogle Scholar
  41. Seale, D. B., Boraas, M. E., & Warren, G. J. (1987). Effects of sodium and phosphate on growth of cyanobacteria. Water Research, 21, 625–631.CrossRefGoogle Scholar
  42. SigmaPlot version 12.1. 2013. Systat Software, Inc., San Jose, California.Google Scholar
  43. Smith, V. H. (1983). Low nitrogen to phosphorus ratios favor dominance by blue-green algae in lake phytoplankton. Science, 221, 669–671.CrossRefGoogle Scholar
  44. Søndergaard, M., Jensen, J. P., & Jeppesen, E. (2003). Role of sediment and internal loading of phosphorus in shallow lakes. Hydrobiologia, 506–509, 135–145.CrossRefGoogle Scholar
  45. Spears, B. M., Carvalho, L., & Paterson, D. M. (2007). Phosphorus partitioning in a shallow lake: implications for water quality management. Water and Environment Journal, 21, 43–53.CrossRefGoogle Scholar
  46. Spears, B. M., Carvalho, L., Perkins, R., Kirika, A., & Paterson, D. M. (2012). Long-term variation and regulation of internal phosphorus loading in Loch Leven. Hydrobiologia, 681, 23–33.CrossRefGoogle Scholar
  47. Standard methods for the examination of water and wastewater, 21st ed. (SMEWW). (2005). American Public Health Association. DC: Washington.Google Scholar
  48. United States Environmental Protection Agency (USEPA). (1978). Method 365.3 Phosphorous, All Forms (Colorimetric, Ascorbic Acid, Two Reagent).Google Scholar
  49. United States Environmental Protection Agency (USEPA) (2011). National Pollutant Discharge Elimination System (NPDES). Pesticide General Permit (PGP) for Discharges from the Application of Pesticides. Washington, DC.Google Scholar
  50. Watson-Leung, T. (2009). Phoslock toxicity testing with three sediment dwelling organisms (Hyalella azteca, Hexagenia spp. andChrinonomus dilutes) and two water dwelling organisms (Rainbow Trout and Daphnia magna). Aquatic Toxicology Unit,Ontario Ministry of the Environment, Ontario, Canada.Google Scholar
  51. Welch, E. B., & Cooke, G. D. (2005). Internal phosphorus loading in shallow lakes: importance and control. Lake Reservoir Management, 21, 209–217.CrossRefGoogle Scholar

Copyright information

© Springer International Publishing Switzerland 2014

Authors and Affiliations

  • West M. Bishop
    • 1
  • Terry McNabb
    • 2
  • Ian Cormican
    • 2
  • Ben E. Willis
    • 1
    Email author
  • Shaun Hyde
    • 3
  1. 1.SePRO Research and Technology CampusWhitakersUSA
  2. 2.AquaTechnex, LLCBellinghamUSA
  3. 3.SePRO CorporationCarmelUSA

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