The use of copper as a biocide in marine antifouling paints

Advances in Marine Antifouling Coatings and Technologies

Volumn , Issue , 2009, Pages 492-521

  Brooks, S ^a   Waldock, M ^b  

^a NORWEGIAN INSTITUTE FOR WATER RESEARCH   (Norway)

^b CENTRE FOR ENVIRONMENT   (United Kingdom)

Author keywords

[No Author keywords available]

Indexed keywords

BIOCHEMISTRY; COPPER; MARINE BIOLOGY; RISK ASSESSMENT;

COASTAL MARINE ENVIRONMENT; COPPER CONCENTRATION; COPPER SPECIATIONS; INFORMATION CONCERNING; MARINE ENVIRONMENT; MARINE LIFE; MARINE ORGANISMS; METHODS OF MEASUREMENT;

ANTIFOULING PAINT;

EID: 79952195822     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1533/9781845696313.3.492     Document Type: Chapter

References (93)

1. Allen H.E., Hansen D.J. The importance of trace metal speciation to water quality criteria. Water Environmental Research 1996, 68:42-54.
2. Alzieu C. Environmental problems caused by TBT in France: assessment, regulations, prospects. Marine Environmental Research 1991, 32:7-17.
3. Anderson C.D., Hunter J.E. Antifouling technology - past, present and future steps towards efficient and environmentally friendly antifouling coatings. Progress in Organic Coatings 2004, 50:75-104. D.M. Yebra, S. Kiil, K. Dam-Johansen (Eds.).
4. Arnold W.R., Santore R.C., Cotsifas J.S. Predicting copper toxicity in estuarine and marine waters using the biotic ligand model. Marine Pollution Bulletin 2005, 50:1634-1640.
5. ASTM Standard test method for copper release rates of antifouling coating systems in seawater. ASTM Method D6442-99 2000, 6.
6. Bianchini A., Martins S.E.G., Barcarolli I.F. Mechanisms of copper toxicity in euryhaline crustaceans: implications for the Biotic Ligand Model. International Congress Series 2004, 1275:189-194.
7. Borgmann U., Nowierski M., Dixon D.G. Effect of major ions on the toxicity of copper to Hyalella azteca and implications for the biotic ligand model. Aquatic Toxicology 2005, 73:268-287.
8. Boxall A.B.A., Comber S.D., Conrad A.U., Howcroft J., Zanman N. Inputs, monitoring and fate modelling of antifouling biocides in UK estuaries. Marine Pollution Bulletin 2000, 40:898-905.
9. Brooks S.J. The osmoregulation of selected gammarid amphipods 2003, 235. Nottingham Trent University, PhD thesis,.
10. Brooks S.J. Copper speciation in samples collected from a Finnish marina. Cefas contract report 2006, CEFAS/PRO/C2415.
11. Brooks S.J., Lloyd-Mills C. The effect of copper on osmoregulation in the freshwater amphipod Gammarus pulex. Comp Biochem Physiol A 2003, 135:527-537.
12. Brooks S.J., Bolam T., Tolhurst L., Bassett J., La Roche J., Waldock M., Barry J., Thomas K.V. The effects of dissolved organic carbon on the toxicity of copper to the developing embryos of the pacific oyster. Crassostrea gigas Environm Toxicol Chem 2007, 26:1756-1763.
13. Brooks S.J., Bolam T., Tolhurst L., Bassett J., La Roche J., Waldock M., Barry J., Thomas K.V. Dissolved organic carbon reduces the toxicity of copper to germlings of the macroalgae. Fucus vesiculosus. Ecotoxicology and Environmental Safety 2008, 10.1016/j.ecoenv.2007.04.007.
14. Bryan G.W., Gibbs P.E. Heavy metals in the Fal Estuary, Cornwall: a study of long-term contamination by mining waste and its effects on estuarine organisms. Occas Publ Mar Biol Assoc UK 1983, 2:1-112.
15. Bryan G.W., Gibbs P.E., Huggett R.J., Curtis L.A., Bailey D.S., Dauer D.M. Effects of tributyltin pollution on the mud snail, Ilyanassa obsoleta, from the York river and Sarah creek, Chesapeake bay. Marine Pollution Bulletin 1989, 20:458-462.
16. Bryan N.L., Langston W.J. Bioavailability, accumulation and effects of heavy metals in sediments with special reference to United Kingdom estuaries: a review. Environmental Pollution 1992, 76:89-131.
17. Choi S.C., Wai O.W.H., Choi T.W.H., Li X.D., Tsang C.W. Distribution of cadmium, chromium, copper, lead and zinc in marine sediments in Hong Kong waters. Environmental Geology 2006, 51:455-461.
18. Conlan K.E. Amphipod crustaceans and environmental disturbance: a review. Journal of Natural History 1994, 28:519-554.
19. Croot P.L., Moffett J.W., Brand L.E. Production of extracellular Cu complexing ligands by eucaryotic phytoplankton in response to Cu stress. Limnol Oceanogr 2000, 45:619-627.
20. 2+ ion activity when pH is varied. Environmental Science and Technology 2005, 39:2067-2072.
21. Di Toro D.M., Allen H.E., Bergmann H.L., Meyer J.S., Paquin P.R., Santore R.C. Biotic Ligand Model of the acute toxicity of metals. 1. Technical basis. Environ Toxicol Chem 2001, 20:2383-2396.
22. Fisher N.S., Fabris J.G. Complexation of Cu, Zn and Cd by metabolites excreted from marine diatoms. Mar Chem 1982, 11:245-255.
23. Florence T.M., Stauber J.L. Toxicity of copper complexes to the marine diatom Nitzschia closterium. Aquatic Toxicology 1986, 8:11-26.
24. Geesey G.G., Bremer P.J., Smith J.J., Muegge M., Jang L.K. Two phase model for describing the interaction between copper ions and exopolymers from Alteromonas atlantica. Can J Microbiol 1992, 38:785-793.
25. Gouvea S.P., Vieira A.A.H., Lombardi A.T. No effect of N or P deficiency on capsule regeneration in Staurodesmus convergens (Zygnematophyceae, Chlorophyta). Phycologia 2005, 41:585-589.
26. Grosell M., Nielsen C., Bianchini A. Sodium turnover rate determines sensitivity to acute copper and silver exposure in freshwater animals. Comparative Biochemistry and Physiology 2002, 133C:287-303.
27. Hall L.W., Anderson R.D. A deterministic ecological risk assessment for copper in European saltwater environments. Marine Pollution Bulletin 1999, 38:207-218.
28. Hall L.W., Giddings J.M., Solomon K.R., Balcomb R.R. An Ecological Risk Assessment for the Use of Irgarol 1051 as an Algaecide for Antifoulant Paints. Critical Reviews in Toxicology 1999, 29:367-437.
29. Hassler C.S., Slaveykova V.I., Wilkinson K.J. Some fundamental (and often overlooked) considerations underlying the free ion activity and biotic ligand models. Environ Toxicol Chem 2004, 23:283-291.
30. Health and Safety Executive (HSE) Evaluation on: Copper compounds. 1st review of their use in antifouling products. Prepared by: The Health and Safety Executive. Biocides and Pesticides Assessment Unit. Magdalen House, Stanley Precinct, Bootle, Merseyside, L20 3QZ 1999, (183). Advisory committee on pesticides.
31. Health and Safety Executive (HSE) REMA - regulatory environmental modeling of antifoulants. Biocides and Pesticides Assessment Unit 1999, Health and Safety Executive, London, UK.
32. Hollis L., Burnison K., Playle R.C. Does the age of metal-dissolved organic carbon complexes influence binding of metals to fish gills?. Aquatic Toxicology 1996, 35:253-264.
33. HydroQual Incorporated Development of total maximum daily loads and wasteload allocations for toxic metals in NY/NJ Harbor. Prepared for the US Environmental Protection Agency, Region II, NY/NJ Estuary program. 1995.
34. IMO (International Maritime Organization) Marine environmental protection committee. Harmful effects of the use of antifouling paints for ships 1997, 40th session, Agenda item 11, Annex 2.
35. IMO (International Maritime Organisation) International conference on the control of harmful anti-fouling systems on ships, adoption of the final act of the conference and any instruments, recommendations and resolutions resulting from the work of the conference, 18 October 2001 2001, IMO Headquarters, London, UK.
36. Jones B., Bolam T. Copper speciation survey from UK marinas, harbours and estuaries. Marine Pollution Bulletin 2007, 54:1127-1138.
37. Jones B.R., Bolam T., Waldock M. The Speciation of Copper in Samples Collected from the Marine Environment 2005, Study Number: CEFAS /PRO/C1385.
38. Jones G.B., Thomas F.G. Effect of terrestrial and marine humics on copper speciation in an estuary in the Great Barrier Reef Lagoon. Australian Journal of Marine and Freshwater Research 1988, 39:19-31.
39. Karel A.C., de Schamphelaere Janssen C.R. A Biotic Ligand Model Predicting Acute Copper Toxicity for Daphnia magna: The Effects of Calcium, Magnesium, Sodium, Potassium, and pH. Environ Sci Technol 2001, 36:48-54.
40. Karmen C.C., Kramer K.J.M., Jak R.G. Deterministic model for the prediction of the bioavailable copper concentration in a marine environment. TNO report 1999, TNO Institute of Environmental Sciences, Energy Research and Process Innovation.
41. Lewis A.G. Copper in water and aquatic environments 1995, Report International Copper Association, New York, NY.
42. Lombardi A.T., Vieira A.A.H. Copper and lead complexation by high molecular weight compounds produced by Synura sp. (Chrysophyceae). Phycologia 1998, 37:34-39.
43. Lorenzo J.I., Nieto O., Beiras R. Anodic stripping voltammetry measures copper bioavailability for sea urchin larvae in the presence of fulvic acids. Environmental Toxicology and Chemistry 2006, 25(1):36-44.
44. Ma H., Kim S.D., Cha D.K., Allen H.E. Effect of kinetics of complexation by fulvic acid on toxicity of copper to Ceriodaphnia dubia. Environ Toxicol Chem 1999, 18:828-837.
45. MacRae, et al. Syke, Environmental hazard assessment of copper in antifoul-ing paints 1998, 66. Finnish Environmental Institute, Sanna Koivisto.
46. MacRae R.K., Smith D.E., Swoboda-Colberg N., Mayer J.S., Bergmann H.L. Copper binding affinity of rainbow trout (Oncorhynchus mykiss) and brook trout (Salvelinus fontinalis) gills: Implications for assessing the bioavailable metal. Environ Toxicol Chem 1999, 18:1180-1189.
47. McLusky D.S., Bryant V., Campbell R. The effects of temperature and salinity on the toxicity of heavy metals to marine and estuarine invertebrates. Oceanography Marine Biology Annual Review 1986, 24:481-520.
48. Moffett J.W., Brand L.E. Production of strong, extracellular Cu chelators by marine cyanobacteria in response to Cu stress. Limnol and Oceanogr 1996, 41:388-395.
49. Muramoto S. Effects of complexans (DTPA, EDTA) on the toxicity of low concentrations of copper to fish. J Environ Sci Health 1982, A17:313-319.
50. Nagata T., Kirchman D.L. Release of macromolecular organic complexes by heterotrophic marine flagellates. Mar Ecol Prog Ser 1992, 83:233-240.
51. Niyogi S., Wood C.M. Biotic Ligand Model, a flexible tool for developing site-specific water quality guidelines for metals. Environmental Science and Technology 2004, 38:6177-6192.
52. Noblet J.A., Zeng E.Y., Baird R., Gossett R.W., Ozretich R.J., Phillips C.R. Regional monitoring program: VI Sediment Chemistry, Southern California Coastal Water Research Project 2002, Westminster, CA.
53. Norwood W.P., Borgmann U., Dixon D.G., Wallace A. Effects of metal mixtures on aquatic biota: a review of observations and methods. Human and Ecological Risk Assessment 2003, 9:795-811.
54. Pagenkopf G.K. Gill surface interaction model for trace-metal toxicity to fishes: role of complexation, pH, and water hardness. Environ Sci Technol 1983, 17:342-347.
55. Pidgeon J.D. Project 320, 1993. Progress in Organic Coatings 1993, 50:75-104. 2004, Marine Safety Agency. D.M. Yebra, S. Kiil, K. Dam-Johansen (Eds.).
56. Playle R.C. Using multiple-gill binding models and the toxic unit concept to help reconcile multiple-metal toxicity results. Aquatic Toxicology 2004, 67:359-370.
57. Playle R.C., Dixon D.G., Burnison K. Copper and cadmium binding to fish gills: Modification by dissolved organic carbon and synthetic ligands. Can J Fish Aquatic Sci 1993, 50:2667-2677.
58. Playle R.C., Dixon D.G., Burnison K. Copper and cadmium binding to fish gills: Estimates of metal-gill stability constants and modelling of metal accumulation. Can J Fish Aquatic Sci 1993, 50:2678-2687.
59. Roper W.L. Toxicological profile for copper. Sponsor - US agency for toxic substances and disease registry. Contract House - Syracuse Research Corporation, published by National Technical Information Service 1990, Springfield, Virginia, USA.
60. Sanders B.M., Jenkins K.D., Sunda W.G., Costlow J.D. Free cupric ion activity in seawater: effects on metallothionein and growth in crab larvae. Science 1983, 222:53.
61. Santore R.C., Driscoll C.T. The CHESS model for calculating equilibria in soils and solutions, chemical equilibrium and reaction models. Chemical Equilibrium and Reaction Models 1995, 357-375. American Society of Agronomy, Madison, USA. S. Goldberg, R. Loeppert, A.P. Schwab (Eds.).
62. Santore R.C., Di Toro D.M., Paquin P.R., Allen H.E., Meyer J.S. Biotic Ligand Model on the acute toxicity of metals. 2. Application to the acute copper toxicity to freshwater fish and daphnia. Environ Tox Chem 2001, 20:2397-2402.
63. Schiff K., Diehl D., Valkirs A. Copper emissions from antifouling paint on recreational vessels. Marine Pollution Bulletin 2004, 48:371-377.
64. Schiff K., Brown J.B., Diehl D., Greenstein D. Extent and magnitude of copper contamination in marinas of the San Diego region, California, USA. Marine Pollution Bulletin 2007, 54:322-328.
65. Skrabal S.A., Donat J.R., Burdige D.J. Fluxes of copper complexing ligands from estuarine sediments. Limnology and Ocenaography 1997, 42(5):992-996.
66. Smith A.J., Thain J.E., Barry J. Exploring the use of caged Nucella lapillus to monitor changes to TBT hotspot areas: A trail in the River Tyne estuary (UK). Marine Environmental Research 2006, 62:149-163.
67. Smith R.M., Martell A.E. Critical stability constants 1976, 469. IV. Inorganic complexes. Plenum, New York.
68. Stumm W., Morgan J.J. Aquatic Chemistry: Chemical equilibria and rates in natural waters 1996, 1022. Wiley, New York.
69. Sueur S., van den Berg C.M.G., Riley J.P. Measurements of the metal complexing ability of exudates of marine macroalgae. Limnol Oceanogr 1982, 27:536-543.
70. Thackray M.A. Investigation of recreational boats as a source of copper at anchorage sites using time-integrated diffusion gradients in thin film and sediment measurements. Marine Pollution Bulletin 1992, 49:833-843. 2004, Marinas and the Environment in Australia - Facts and Fantasie. Warnken (Ed.).
71. Thain J.E. Toxicity of TBT to bivalves: effects on reproduction, growth and survival. IEEE, Piscataway, NJ 1986, 4:1306-1313.
72. Thain J.E., Waldock M.J. The impact of tributyltin (TBT) antifouling paints on molluscan fisheries. Water Science and Technology 1986, 18:193-202.
73. Thomas K.V., Raymond K., Chadwick J., Waldock M. The effects of short-term changes in environmental parameters on the release of biocides from antifouling coatings: cuprous oxide and tributyltin. Applied Organometallic Chemistry 1999, 13:453-460.
74. Thomas K.V., Blake S.J., Waldock M.J. Antifouling paint booster biocide contamination in UK marine sediments. Marine Pollution Bulletin 2000, 40:739-745.
75. Thomas K.V., Fileman T.W., Readman J.W., Waldock M.J. Antifouling paint booster biocides in the UK coastal environment and potential risks of biological effects. Marine Pollution Bulletin 2001, 42:677-688.
76. Thomas K.V., McHugh M., Hilton M., Waldock M.J. Increased persistence of antifouling paint biocides when associated with paint particles. Environmental Pollution 2003, 123:153-161.
77. Timofeyev M.A., Shatilina Z.M., Kolesnichenko A.V., Bedulina D.S., Kolesnichenko V.V., Pflugmacher S., Steinberg C.E.W. Natural organic matter (NOM) induces oxidative stress in freshwater amphipods Gammarus lacustris Sars and Gammarus tigrinus (Sexton). Science of the total environment 2006, 366:673-681.
78. Tipping E. WHAM-a chemical equilibrium model and computer code for waters, sediments, and soils incorporating a discrete site/electrostatic model of ion-binding by humic substances. Comput Geosci 1994, 20:973-1023.
79. Turner A., Fitzer S., Glegg G.A. Impacts of boat paint chips on the distribution and availability of copper in an English ria. Environmental Pollution 2008, 151:176-181.
80. US EPA (United States Environmental Protection Agency) Ambient water quality criteria for copper. Office of Water Regulations and Standards 1985, Criteria and Standards Division, Washington, DC, EPA 440/5-84-031.
81. EPA US Draft update of ambient water quality criteria for copper 2003, US Environmental Protection Agency, Office of Water, Washington, DC, EPA-822-R-03-026.
82. Valkirs A.O., Davidson B.M., Kear L.L., Fransham R.L., Zirino A.R., Grovhoug J.G. Environmental effects from in-water hull cleaning of ablative copper antifouling coatings. Technical document 2662 1994, Navy Command Control and Ocean Surveillance Center, San Diego, CA.
83. Valkirs A.O., Seligman P.F., Haslbeck E., Caso J.S. Measurement of copper release rates from antifouling paint under laboratory and in situ conditions: implications for loading estimates to marine water bodies. Marine Pollution Bulletin 2003, 46:763-779.
84. van den Berg C.M.G. Determination of copper complexation with natural organic ligands in seawater by equilibration with MnO2 II. Experimental procedures and application to surface seawater. Marine Chemistry 1982, 11:323-342.
85. van den Berg C.M.G. Organic and inorganic speciation of copper in the Irish Sea. Marine Chemistry 1984, 14:201-212.
86. van Hattum B., Baart A.C., Boon J.G. Computer model to generate predicted environmental concentrations (PECs) for antifouling products in the marine environment 2002, accompanying the release of Mam-Pec version 1.4, Report number E-02-04 / Z 3117. 2nd edition.
87. 3. Effects assessment to the aquatic compartment 2004, Report Euras, Belgium.
88. Verschueren K. Handbook of Environmental Data on Organic Chemicals 1996, Van Nostrand Reinhold, New York, USA.
89. Yebra D.M., Kiil S., Dam-Johansen K. Antifouling technology - past, present and future steps towards efficient and environmentally friendly antifouling coatings. Progress in Organic Coatings 2004, 50:75-104.
90. Yebra D.M., Kiil S., Weinell C.E., Dam-Johansen K. Effects of marine microbial biofilms on the biocide release rate from antifouling paints - A model-based analysis. Progress in Organic Coatings 2006, 57:56-66.
91. Zamunda C.D., Sunda W.G. Bioavailability of dissolved copper to the American oyster Crassostrea virginica. I. Importance of chemical speciation. Mar Biol 1982, 66:77-82.
92. Zhou B., Nichols J., Playle R.C., Wood C.M. An in vitro biotic ligand model (BLM) for silver binding to cultured gill epithelia of freshwater rainbow trout (Oncorhynchus mykiss). Toxicology and applied pharmacology 2005, 202:25-37.
93. II activity in San Diego Bay. Electroanalysis 1998, 10:423-427.